Carlos António Delgado Sousa Brites

A forma da água: a nanotermometria como ferramenta para desvendar a estrutura da água líquida e de soluções coloidais. (PTDC/NAN-PRO/3881/2020)

ParticipanteFundação para a Ciência e a Tecnologia

DESENVOLVIMENTO DE NANOPLATAFORMAS EFICIENTES DE AQUECIMENTO E MONITORIZAC?A?O PARA IMAGEM INTRACELLULAR E HIPERTRMIA LOCAL CONTROLADA. (NanoHeatControl)

ParticipanteFundação para a Ciência e a Tecnologia

Engineering Eu3+/Tb3+-bearing metal-organic framework luminescent thermometers for tunable thermal performance

Virgile Trannoy, Albano N. Carneiro Neto, Carlos D. S. Brites, Luís D. Carlos, Hélène Serier-Brault
2021, Advanced Optical Materials.

Lanthanide Luminescence to Mimic Molecular Logic and Computing through Physical Inputs

Hernandez-Rodriguez, MA; Brites, CDS; Antorrena, G; Pinol, R; Cases, R; Perez-Garcia, L; Rodrigues, M; Plaza, JA; Torras, N; Diez, I; Millan, A; Carlos, LD
2020, ADVANCED OPTICAL MATERIALS, 8, 12.

Exploiting bandgap engineering to finely control dual-mode Lu-2(Ge,Si)O-5:Pr(3+)luminescence thermometers

Sojka, M; Brites, CDS; Carlos, LD; Zych, E
2020, JOURNAL OF MATERIALS CHEMISTRY C, 8, 29, 10086-10097.
ISBN: 2050-7534

La0.4Gd1.6Zr2O7:0.1%Pr transparent sintered ceramic - a wide-range luminescence thermometer

Trojan-Piegza, J; Brites, CDS; Ramalho, JFCB; Wang, ZJ; Zhou, GH; Wang, SW; Carlos, LD; Zych, E
2020, JOURNAL OF MATERIALS CHEMISTRY C, 8, 21, 7005-7011.
ISBN: 2050-7534

Simultaneous Measurement of the Emission Quantum Yield and Local Temperature: The Illustrative Example of SrF2:Yb3+/Er3+ Single Crystals

Brites, CDS; Kuznetsov, SV; Konyushkin, VA; Nakladov, AN; Fedorov, PP; Carlos, LD
2020, EUROPEAN JOURNAL OF INORGANIC CHEMISTRY, 2020, 17, 1555-1561.
ISBN: 1099-0682

Real-Time Intracellular Temperature Imaging Using Lanthanide Bearing Polymeric Micelles

Pinol, R; Zeler, J; Brites, CDS; Gu, YY; Tellez, P; Neto, ANC; da Silva, TE; Moreno-Loshuertos, R; Fernandez-Silva, P; Gallego, AI; Martinez-Lostao, L; Martinez, A; Carlos, LD; Millan, A
2020, NANO LETTERS, 20, 9, 6466-6472.
ISBN: 1530-6992

Decoding a Percolation Phase Transition of Water at similar to 330 K with a Nanoparticle Ruler

Brites, CDS; Zhuang, BL; Debasu, ML; Ding, D; Qin, X; Maturi, FE; Lim, WWY; Soh, D; Rocha, J; Yi, ZG; Liu, XG; Carlos, LD
2020, JOURNAL OF PHYSICAL CHEMISTRY LETTERS, 11, 16, 6704-6711.

Exploring Single-Nanoparticle Dynamics at High Temperature by Optical Tweezers

Lu, DS; Labrador-Paez, L; Ortiz-Rivero, E; Frades, P; Antoniak, MA; Wawrzynczyk, D; Nyk, M; Brites, CDS; Carlos, LD; Sole, JAG; Haro-Gonzalez, P; Jaque, D
2020, NANO LETTERS, 20, 11, 8024-8031.
ISBN: 1530-6992

Self-Calibrated Double Luminescent Thermometers Through Upconverting Nanoparticles

Brites, CDS; Martinez, ED; Urbano, RR; Rettori, C; Carlos, LD
2019, FRONTIERS IN CHEMISTRY, 7.

Lanthanide-Based Thermometers: At the Cutting-Edge of Luminescence Thermometry

Brites, CDS; Balabhadra, S; Carlos, LD
2019, ADVANCED OPTICAL MATERIALS, 7, 5.

Upconversion Nanocomposite Materials With Designed Thermal Response for Optoelectronic Devices

Martinez, ED; Brites, CDS; Carlos, LD; Urbano, RR; Rettori, C
2019, FRONTIERS IN CHEMISTRY, 7.

Electrochromic Switch Devices Mixing Small- and Large-Sized Upconverting Nanocrystals

Martinez, ED; Brites, CDS; Carlos, LD; Garcia-Flores, AF; Urbano, RR; Rettori, C
2019, ADVANCED FUNCTIONAL MATERIALS, 29, 8.
ISBN: 1616-3028

Thermal Properties of Lipid Bilayers Determined Using Upconversion Nanothermometry

Bastos, ARN; Brites, CDS; Rojas-Gutierrez, PA; DeWolf, C; Ferreira, RAS; Capobianco, JA; Carlos, LD
2019, ADVANCED FUNCTIONAL MATERIALS, 29, 48.
ISBN: 1616-3028

Bandgap Engineering and Excitation Energy Alteration to Manage Luminescence Thermometer Performance. The Case of Sr-2(Ge,Si)O-4:Pr3+

Sojka, M; Ramalho, JFCB; Brites, CDS; Fiaczyk, K; Carlos, LD; Zych, E
2019, ADVANCED OPTICAL MATERIALS, 7, 23.

Luminescence Thermometry on the Route of the Mobile-Based Internet of Things (IoT): How Smart QR Codes Make It Real

Ramalho, JFCB; Correia, SFH; Fu, LS; Antonio, LLF; Brites, CDS; Andre, PS; Ferreira, RAS; Carlos, LD
2019, ADVANCED SCIENCE, 6, 19.
ISBN: 2198-3844

Aggregation-induced heterogeneities in the emission of upconverting nanoparticles at the submicron scale unfolded by hyperspectral microscopy

Gonell, F; Botas, AMP; Brites, CDS; Amoros, P; Carlos, LD; Julian-Lopez, B; Ferreira, RAS
2019, NANOSCALE ADVANCES, 1, 7, 2537-2545.

Widening the Temperature Range of Luminescent Thermometers through the Intra- and Interconfigurational Transitions of Pr3+

Brites, CDS; Fiaczyk, K; Ramalho, JFCB; Sojka, M; Carlos, LD; Zych, E
2018, ADVANCED OPTICAL MATERIALS, 6, 10.

[INVITED] Luminescent QR codes for smart labelling and sensing

Ramalho, JFCB; Antonio, LCF; Correia, SFH; Fu, LS; Pinho, AS; Brites, CDS; Carlos, LD; Andre, PS; Ferreira, RAS
2018, OPTICS AND LASER TECHNOLOGY, 101, 304-311.

Upconversion thermometry: a new tool to measure the thermal resistance of nanoparticles

Savchuk, OA; Carvajal, JJ; Brites, CDS; Carlos, LD; Aguilo, M; Diaz, F
2018, NANOSCALE, 10, 14, 6602-6610.

Radiation-to-heat conversion efficiency in SrF2:Yb3+/Er3+ upconverting nanoparticles

Balabhadra, S; Debasu, ML; Brites, CDS; Ferreira, RAS; Carlos, LD
2018, OPTICAL MATERIALS, 83, 1-6.

A cost-effective quantum yield measurement setup for upconverting nanoparticles

Balabhadra, S; Debasu, ML; Brites, CDS; Ferreira, RAS; Carlos, LD
2017, JOURNAL OF LUMINESCENCE, 189, 64-70.

Tethering Luminescent Thermometry and Plasmonics: Light Manipulation to Assess Real-Time Thermal Flow in Nanoarchitectures

Brites, CDS; Fuertes, MC; Angelome, PC; Martinez, ED; Lima, PP; Soler-Illia, GJAA; Carlos, LD
2017, NANO LETTERS, 17, 8, 4746-4752.

Upconverting Nanoparticles Working As Primary Thermometers In Different Media

Balabhadra, S; Debasu, ML; Brites, CDS; Ferreira, RAS; Carlos, LD
2017, JOURNAL OF PHYSICAL CHEMISTRY C, 121, 25, 13962-13968.

Tuning the sensitivity of Ln(3+)-based luminescent molecular thermometers through ligand design

Brites, CDS; Lima, PP; Carlos, LD
2016, JOURNAL OF LUMINESCENCE, 169, 497-502.

Unveiling in Vivo Subcutaneous Thermal Dynamics by Infrared Luminescent Nanothermometers

Ximendes, EC; Santos, WQ; Rocha, U; Kagola, UK; Sanz-Rodriguez, F; Fernandez, N; Gouveia-Neto, AD; Bravo, D; Domingo, AM; del Rosal, B; Brites, CDS; Carlos, LD; Jaque, D; Jacinto, C
2016, NANO LETTERS, 16, 3, 1695-1703.

Instantaneous ballistic velocity of suspended Brownian nanocrystals measured by upconversion nanothermometry

Brites, CDS; Xie, XJ; Debasu, ML; Qin, X; Chen, RF; Huang, W; Rocha, J; Liu, XG; Carlos, LD
2016, NATURE NANOTECHNOLOGY, 11, 10, 851-+.

Implementing luminescence thermometry at 1.3 mu m using (GdNd)(2)O-3 nanoparticles

Balabhadra, S; Debasu, ML; Brites, CDS; Rocha, J; Carlos, LD
2016, JOURNAL OF LUMINESCENCE, 180, 25-30.

Nanoplatforms for Plasmon-Induced Heating and Thermometry

Debasu, ML; Brites, CDS; Balabhadra, S; Oliveira, H; Rocha, J; Carlos, LD
2016, CHEMNANOMAT, 2, 6, 520-527.

A New Generation of Primary Luminescent Thermometers Based on Silicon Nanoparticles and Operating in Different Media

Botas, AMP; Brites, CDS; Wu, J; Kortshagen, U; Pereira, RN; Carlos, LD; Ferreira, RAS
2016, PARTICLE & PARTICLE SYSTEMS CHARACTERIZATION, 33, 10, 740-748.

Cryogenic Nanothermometer Based on the MIL-103(Tb,Eu) Metal-Organic Framework

Ananias, D; Brites, CDS; Carlos, LD; Rocha, J
2016, EUROPEAN JOURNAL OF INORGANIC CHEMISTRY, 13-14, 1967-1971.

Implementing Thermometry on Silicon Surfaces Functionalized by Lanthanide-Doped Self-Assembled Polymer Monolayers

Rodrigues, M; Pinol, R; Antorrena, G; Brites, CDS; Silva, NJO; Murillo, JL; Cases, R; Diez, I; Palacio, F; Torras, N; Plaza, JA; Perez-Garcia, L; Carlos, LD; Millan, A
2016, ADVANCED FUNCTIONAL MATERIALS, 26, 2, 200-209.

Lanthanide Organic Framework Luminescent Thermometers

Rocha, J; Brites, CDS; Carlos, LD
2016, CHEMISTRY-A EUROPEAN JOURNAL, 22, 42, 14782-14795.

Visible-Light Excited Luminescent Thermometer Based on Single Lanthanide Organic Frameworks

Li, L; Zhu, YL; Zhou, XH; Brites, CDS; Ananias, D; Lin, Z; Paz, FAA; Rocha, J; Huang, W; Carlos, LD
2016, ADVANCED FUNCTIONAL MATERIALS, 26, 47, 8677-8684.

Lanthanide-Organic Framework Nanothermometers Prepared by Spray-Drying

Wang, ZP; Ananias, D; Carne-Sanchez, A; Brites, CDS; Imaz, I; Maspoch, D; Rocha, J; Carlos, LD
2015, ADVANCED FUNCTIONAL MATERIALS, 25, 19, 2824-2830.

Joining Time-Resolved Thermometry and Magnetic-Induced Heating in a Single Nanoparticle Unveils Intriguing Thermal Properties

Pinol, R; Brites, CDS; Bustamante, R; Martinez, A; Silva, NJO; Murillo, JL; Cases, R; Carrey, J; Estepa, C; Sosa, C; Palacio, F; Carlos, LD; Millan, A
2015, ACS NANO, 9, 3, 3134-3142.

A cryogenic luminescent ratiometric thermometer based on a lanthanide phosphonate dimer

Ren, M; Brites, CDS; Bao, SS; Ferreira, RAS; Zheng, LM; Carlos, LD
2015, JOURNAL OF MATERIALS CHEMISTRY C, 3, 33, 8480-8484.

Boosting the sensitivity of Nd3+-based luminescent nanothermometers

Balabhadra, S; Debasu, ML; Brites, CDS; Nunes, LAO; Malta, OL; Rocha, J; Bettinelli, M; Carlos, LD
2015, NANOSCALE, 7, 41, 17261-17267.

White OLED based on a temperature sensitive Eu3+/Tb3+ beta-diketonate complex

Lima, PP; Paz, FAA; Brites, CDS; Quirino, WG; Legnani, C; Silva, MCE; Ferreira, RAS; Junior, SA; Malta, OL; Cremona, M; Carlos, LD
2014, ORGANIC ELECTRONICS, 15, 3, 798-808.

Thermometry at the nanoscale using lanthanide-containing organic-inorganic hybrid materials

Brites, CDS; Lima, PP; Silva, NJO; Millan, A; Amaral, VS; Palacio, F; Carlos, LD
2013, JOURNAL OF LUMINESCENCE, 133, 230-232.

Ratiometric highly sensitive luminescent nanothermometers working in the room temperature range. Applications to heat propagation in nanofluids

Brites, CDS; Lima, PP; Silva, NJO; Millan, A; Amaral, VS; Palacio, F; Carlos, LD
2013, NANOSCALE, 5, 16, 7572-7580.

Ratiometric Nanothermometer Based on an Emissive Ln(3+)-Organic Framework

Cadiau, A; Brites, CDS; Costa, PMFJ; Ferreira, RAS; Rocha, J; Carlos, LD
2013, ACS NANO, 7, 8, 7213-7218.

Photonic-on-a-chip: a thermal actuated Mach-Zehnder interferometer and a molecular thermometer based on a single di-ureasil organic-inorganic hybrid

Ferreira, RAS; Brites, CDS; Vicente, CMS; Lima, PP; Bastos, ARN; Marques, PG; Hiltunen, M; Carlos, LD; Andre, PS
2013, LASER & PHOTONICS REVIEWS, 7, 6, 1027-1035.

Organic-Inorganic Eu3+/Tb3+ codoped hybrid films for temperature mapping in integrated circuits

Brites, CDS; Lima, PP; Silva, NJO; Millan, A; Amaral, VS; Palacio, F; Carlos, LD
2013, FRONTIERS IN CHEMISTRY, 1.

Metal-Free Highly Luminescent Silica Nanoparticles

Brites, CDS; Freitas, VT; Ferreira, RAS; Millan, A; Palacio, F; Carlos, LD
2012, LANGMUIR, 28, 21, 8190-8196.

Thermometry at the nanoscale

Brites, CDS; Lima, PP; Silva, NJO; Millan, A; Amaral, VS; Palacio, F; Carlos, LD
2012, NANOSCALE, 4, 16, 4799-4829.

Lanthanide-based luminescent molecular thermometers

Brites, CDS; Lima, PP; Silva, NJO; Millan, A; Amaral, VS; Palacio, F; Carlos, LD
2011, NEW JOURNAL OF CHEMISTRY, 35, 6, 1177-1183.

A Luminescent Molecular Thermometer for Long-Term Absolute Temperature Measurements at the Nanoscale

Brites, CDS; Lima, PP; Silva, NJO; Millan, A; Amaral, VS; Palacio, F; Carlos, LD
2010, ADVANCED MATERIALS, 22, 40, 4499-4504.

Photoluminescence of Eu(III)-doped lamellar bridged silsesquioxanes self-templated through a hydrogen bonding array

Nobre, SS; Brites, CDS; Ferreira, RAS; Bermudez, VD; Carcel, C; Moreau, JJE; Rocha, J; Man, MWC; Carlos, LD
2008, JOURNAL OF MATERIALS CHEMISTRY, 18, 35, 4172-4182.

Nanoscale Thermometry for Hyperthermia Applications

In Raluca Maria Fratila, Jesús Martínez De La Fuente (Eds.), Nanomaterials for Magnetic and Optical Hyperthermia Applications
Rafael Piñol, Carlos D.S. Brites, Nuno J. Silva, Luis D. Carlos, Angel Millán
2019, 139-172, Elsevier.
ISBN: 978-0-12-813928-8

Chapter 281 – Lanthanides in Luminescent Thermometry

In Karl A. Gschneidner, Jean-Claude BŸnzli, Vitalij Pecharsky (Eds.), Handbook on the Physics and Chemistry of Rare Earths, Volume 49
C.D.S. Brites, A. Millán, L.D. Carlos
2016, 339-427, Elsevier B.V..
ISBN: 978-0-444-63851-9