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Infección Viral e Inmunidad

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Characterisation of Legionella Clinical Isolates in Spain from 2012 to 2022

González-Rubio, J.M.; Cascajero, A.; Baladrón, B.; González-Camacho, F. Microorganisms 2024, 12, 1253

PUBMED DOI

Programa de Legionelosis. En Echevarría Mayo JE y Oteo Iglesias J (Editores) Programas de Vigilancia Microbiológica Centro Nacional de Microbiología.

Fernando González-Camacho y Almudena Cascajero. Programa de Legionelosis. En Echevarría Mayo JE y Oteo Iglesias J (Editores) Programas de Vigilancia Microbiológica Centro Nacional de Microbiología. Volumen 2:77-89. 2021-2022 Majadahonda (Madrid); Instituto de Salud Carlos III, Centro Nacional de Microbiología: 2023.

Chikungunya virus infections among travellers returning to Spain, 2008 to 2014

3. Maria Dolores Fernandez Garcia; Mathieu Bangert; Fernando de Ory; Arantxa Potente; Lourdes Hernandez; Fatima Lasala; Laura Herrero; Francisca Molero; Anabel Negredo; Ana Vázquez; Teodora Minguito; Pilar Balfagón; Jesus de la Fuente; Sabino Puente; Eva Ramírez de Arellano; Mar Lago; Miguel Martinez; Joaquim Gascón; Francesca Norman; Rogelio Lopez Velez; Elena Sulleiro; Diana Pou; Nuria Serre; Ricardo Fernández Roblas; Antonio Tenorio; Leticia Franco; Maria Paz Sanchez Seco. Chikungunya virus infections among travellers returning to Spain, 2008 to 2014. Euro surveillance : bulletin Europeen sur les maladies transmissibles = European communicable disease bulletin. 21 - 36, (Sweden): 08/09/2016. ISSN 1560-7917

PUBMED DOI

Legionella feeleii: Ubiquitous Pathogen in the Environment and Causative Agent of Pneumonia

Vaccaro L, Gomes TS, Izquierdo F, Magnet A, Llorens Berzosa S, Ollero D, Salso S, Alhambra A, Gómez C, López Cano M, Pelaz C, Bellido Samaniego B, Del Aguila C, Fenoy S, Hurtado-Marcos C. Front Microbiol. 2021;12:707187.

DOI

Immunogenicity of a third dose with mRNA-vaccines in the ChAdOx1-S/BNT162b2 vaccination regimen against SARS-CoV-2 variants.

García-Pérez J, Borobia AM, Pérez-Olmeda M, Portolés A, Castaño L, Campins-Artí M, Bertrán MJ, Bermejo M, Arribas JR, López A, Ascaso-Del-Rio A, Arana-Arri E, Fuentes Camps I, Vilella A, Cascajero A, García-Morales MT, Castillo de la Osa M, Pérez Ingidua C, Lora D, Jiménez-Santana P, Pino-Rosa S, Gómez de la Cámara A, De La Torre-Tarazona E, Calonge E, Cruces R, Belda-Iniesta C, Alcamí J, Frías J, Carcas AJ, Díez-Fuertes F. iScience. 2024; 27(9):110728

PUBMED DOI

Longer intervals between SARS-CoV-2 infection and mRNA-1273 doses improve the neutralization of different variants of concern

García-Pérez J, Bermejo M, Ramírez-García A, De La Torre-Tarazona HE, Cascajero A, Castillo de la Osa M, Jiménez P, Aparicio Gómez M, Calonge E, Sancho-López A, Payares-Herrera C, Layunta Acero R, Vicente-Izquierdo L, Avendaño-Solá C, Alcamí J, Pérez-Olmeda M, Díez-Fuertes F. J Med Virol. 2023; 95(3):e28679

PUBMED DOI

Maca (Lepidium meyenii Walp.) inhibits HIV-1 infection through the activity of thiadiazole alkaloids in viral integration.

Apaza-Ticona L, Beltrán M, Moraga E, Cossio D, Bermejo P, Guerra JA, Alcamí J, Bedoya LM. J Ethnopharmacol. 2024; 335:118613

PUBMED DOI

Immune response and reactogenicity after immunization with two-doses of an experimental COVID-19 vaccine (CVnCOV) followed by a third-fourth shot with a standard mRNA vaccine (BNT162b2): RescueVacs multicenter cohort study

Ascaso-Del-Rio A, García-Pérez J, Pérez-Olmeda M, Arana-Arri E, Vergara I, Pérez-Ingidua C, Bermejo M, Castillo de la Osa M, Imaz-Ayo N, Riaño Fernández I, Astasio González O, Díez-Fuertes F, Meijide S, Arrizabalaga J, Hernández Gutiérrez L, de la Torre-Tarazona HE, Mariano Lázaro A, Vargas-Castrillón E, Alcamí J, Portolés A; RescueVac study Group. EClinicalMedicine. 2022; 51:101542

PUBMED DOI

Immunogenic dynamics and SARS-CoV-2 variant neutralisation of the heterologous ChAdOx1-S/BNT162b2 vaccination: Secondary analysis of the randomised CombiVacS study

García-Pérez J, González-Pérez M, Castillo de la Osa M, Borobia AM, Castaño L, Bertrán MJ, Campins M, Portolés A, Lora D, Bermejo M, Conde P, Hernández-Gutierrez L, Carcas A, Arana-Arri E, Tortajada M, Fuentes I, Ascaso A, García-Morales MT, Erick de la Torre-Tarazona H, Arribas JR, Imaz-Ayo N, Mellado-Pau E, Agustí A, Pérez-Ingidua C, Gómez de la Cámara A, Ochando J, Belda-Iniesta C, Frías J, Alcamí J, Pérez-Olmeda M; CombiVacS study Group. EClinicalMedicine. 2022; 50:101529

PUBMED DOI

Elite controllers long-term non progressors present improved survival and slower disease progression

Capa L, Ayala-Suárez R, De La Torre Tarazona HE, González-García J, Del Romero J, Alcamí J, Díez-Fuertes F. Sci Rep. 2022; 12(1):16356

PUBMED DOI

Transcriptomic Evidence of the Immune Response Activation in Individuals With Limb Girdle Muscular Dystrophy Dominant 2 (LGMDD2) Contributes to Resistance to HIV-1 Infection

Diez-Fuertes F, López-Huertas MR, García-Pérez J, Calonge E, Bermejo M, Mateos E, Martí P, Muelas N, Vílchez JJ, Coiras M, Alcamí J, Rodríguez-Mora S. Front Cell Dev Biol. 2022; 10:839813

PUBMED DOI

Immunogenicity and reactogenicity of BNT162b2 booster in ChAdOx1-S-primed participants (CombiVacS): a multicentre, open-label, randomised, controlled, phase 2 trial

Borobia AM, Carcas AJ, Pérez-Olmeda M, Castaño L, Bertran MJ, García-Pérez J, Campins M, Portolés A, González-Pérez M, García Morales MT, Arana-Arri E, Aldea M, Díez-Fuertes F, Fuentes I, Ascaso A, Lora D, Imaz-Ayo N, Barón-Mira LE, Agustí A, Pérez-Ingidua C, Gómez de la Cámara A, Arribas JR, Ochando J, Alcamí J, Belda-Iniesta C, Frías J; CombiVacS Study Group. Lancet. 2021; 398(10295):121-130

PUBMED DOI

A Founder Effect Led Early SARS-CoV-2 Transmission in Spain

Díez-Fuertes F, Iglesias-Caballero M, García-Pérez J, Monzón S, Jiménez P, Varona S, Cuesta I, Zaballos Á, Jiménez M, Checa L, Pozo F, Pérez-Olmeda M, Thomson MM, Alcamí J, Casas I. J Virol. 2021; 95(3):e01583-20

PUBMED DOI

Two sporadic cases of Legionellosis associated with the use of domestic ultrasonic humidifiers

Reinares Ortiz, J.; Pérez-Serrano, J.; González-Rubio, J.M.; González-Camacho, F. Microorganisms 2024, 12, 2139.

PUBMED DOI

First Insight into the Genome Sequences of Two Linezolid-Resistant Nocardia farcinica Strains Isolated from Patients with Cystic Fibrosis

2: Valdezate S, Monzón S, Garrido N, Zaballos A, Medina-Pascual MJ, Azcona-Gutiérrez JM, Vilar B, Cuesta I. First Insight into the Genome Sequences of Two Linezolid-Resistant Nocardia farcinica Strains Isolated from Patients with Cystic Fibrosis. Genome Announc. 2017 Nov 16;5(46).

PUBMED DOI

Apoptosis, Toll-like, RIG-I-like and NOD-like Receptors Are Pathways Jointly Induced by Diverse Respiratory Bacterial and Viral Pathogens.

3: Martínez I, Oliveros JC, Cuesta I, de la Barrera J, Ausina V, Casals C, de Lorenzo A, García E, García-Fojeda B, Garmendia J, González-Nicolau M, Lacoma A, Menéndez M, Moranta D, Nieto A, Ortín J, Pérez-González A, Prat C, Ramos-Sevillano E, Regueiro V, Rodriguez-Frandsen A, Solís D, Yuste J, Bengoechea JA, Melero JA. Apoptosis, Toll-like, RIG-I-like and NOD-like Receptors Are Pathways Jointly Induced by Diverse Respiratory Bacterial and Viral Pathogens. Front Microbiol. 2017 Mar 1;8:276

PUBMED DOI

Molecular identification, antifungal resistance and virulence of Cryptococcus neoformans and Cryptococcus deneoformans isolated in Seville, Spain

Gago S, Serrano C, Alastruey-Izquierdo A, Cuesta I, Martín-Mazuelos E, Aller AI, Gómez-López A, Mellado E. Molecular identification, antifungal resistance and virulence of Cryptococcus neoformans and Cryptococcus deneoformans isolated in Seville, Spain. Mycoses. 2017 Jan;60(1):40-50

PUBMED DOI

High-Quality Draft Genome Sequence of Babesia divergens, the Etiological Agent of Cattle and Human Babesiosis

7: Cuesta I, González LM, Estrada K, Grande R, Zaballos A, Lobo CA, Barrera J, Sanchez-Flores A, Montero E. High-Quality Draft Genome Sequence of Babesia divergens, the Etiological Agent of Cattle and Human Babesiosis. Genome Announc. 2014 Nov 13;2(6).

PUBMED DOI

Serum galactomannan-based early detection of invasive aspergillosis in hematology patients receiving effective antimold prophylaxis

8: Duarte RF, Sánchez-Ortega I, Cuesta I, Arnan M, Patiño B, Fernández de Sevilla A, Gudiol C, Ayats J, Cuenca-Estrella M. Serum galactomannan-based early detection of invasive aspergillosis in hematology patients receiving effective antimold prophylaxis. Clin Infect Dis. 2014 Dec 15;59(12):1696-702.

PUBMED DOI

Analysis of the protein domain and domain architecture content in fungi and its application in the search of new antifungal targets.

9: Barrera A, Alastruey-Izquierdo A, Martín MJ, Cuesta I, Vizcaíno JA. Analysis of the protein domain and domain architecture content in fungi and its application in the search of new antifungal targets. PLoS Comput Biol. 2014 Jul 17;10(7):e1003733.

PUBMED DOI

Content with Investigacion Neisseria, Listeria y Bordetella .

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Additional Information

La inducción de la tolerancia al aloinjerto sigue siendo una meta por alcanzar en el trasplante de órganos. La mayoría de las estrategias terapéuticas se centran en la inhibición del sistema inmunológico adaptativo, pero datos recientes demuestran que el reconocimiento alogénico de las células mieloides inicia el rechazo al trasplante. Terapias dirigidas hacia las células mieloides “in vivo” representan un objetivo potencial para inducir tolerancia inmunológica, pero permanece inexplorado clínicamente.Nuestro laboratorio utiliza una nanoinmunoterapia revolucionaria de nanopartículas de lipoproteínas de alta densidad (HDL) cargadas con rapamicina (mTORi-HDL) que previenen las modificaciones epigenéticas asociadas con la inmunidad entrenada, un estado funcional de los macrófagos recientemente descubierto. Usando un modelo experimental de trasplante en ratón, nuestros resultados demuestran que la administración de esta inmunoterapia con mTORi-HDL previene la respuesta inmunológica y promueve la tolerancia al órgano trasplantado.Nuestro laboratorio muestra un enfoque de investigación multidisciplinar articulado en tres objetivos diferentes para evaluar la relevancia clínica y los efectos terapéuticos de la inmunoterapia como preparación para un ensayo clínico en trasplante de órganos. Los objetivos generales estarán orientados a confirmar la identificación de la inmunidad entrenada como biomarcador y valor analítico para predecir el riesgo de rechazo en pacientes trasplantados bajo tres condiciones: periodos prolongadas de reperfusión isquémica (IRI) (objetivo 1), alosensibilización (objetivo 2) e infección (objetivo 3).

Induction of allograft tolerance remains a goal to be achieved in organ transplantation. Most therapeutic strategies focus on inhibition of the adaptive immune system, but recent data demonstrate that allogeneic recognition of myeloid cells initiates transplant rejection. Therapies targeting myeloid cells “in vivo” represent a potential target to induce immunological tolerance, but remain clinically unexplored. 

Our laboratory uses a revolutionary nanoimmunotherapy of high-density lipoprotein (HDL) nanoparticles loaded with rapamycin (mTORi-HDL) that prevents epigenetic modifications associated with trained immunity, a recently discovered functional state of macrophages. Using an experimental mouse transplant model, our results demonstrate that the administration of this immunotherapy with mTORi-HDL prevents the immune response and promotes tolerance to the transplanted organ. 

Our laboratory shows a multidisciplinary research approach articulated in three different objectives to evaluate the clinical relevance and therapeutic effects of immunotherapy in preparation for a clinical trial in organ transplantation. The general objectives will be aimed at confirming the identification of trained immunity as a biomarker and analytical value to predict the risk of rejection in transplant patients under three conditions: prolonged periods of ischemic reperfusion (IRI) (objective 1), allosensitization (objective 2) and infection (objective 3).

Induction of allograft tolerance remains a goal to be achieved in organ transplantation. Most therapeutic strategies focus on inhibition of the adaptive immune system, but recent data demonstrate that allogeneic recognition of myeloid cells initiates transplant rejection. Therapies targeting myeloid cells “in vivo” represent a potential target to induce immunological tolerance, but remain clinically unexplored. 

Our laboratory uses a revolutionary nanoimmunotherapy of high-density lipoprotein (HDL) nanoparticles loaded with rapamycin (mTORi-HDL) that prevents epigenetic modifications associated with trained immunity, a recently discovered functional state of macrophages. Using an experimental mouse transplant model, our results demonstrate that the administration of this immunotherapy with mTORi-HDL prevents the immune response and promotes tolerance to the transplanted organ. 

Our laboratory shows a multidisciplinary research approach articulated in three different objectives to evaluate the clinical relevance and therapeutic effects of immunotherapy in preparation for a clinical trial in organ transplantation. The general objectives will be aimed at confirming the identification of trained immunity as a biomarker and analytical value to predict the risk of rejection in transplant patients under three conditions: prolonged periods of ischemic reperfusion (IRI) (objective 1), allosensitization (objective 2) and infection (objective 3).

Content with Investigacion Neisseria, Listeria y Bordetella .