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Non-tech summaries 2016: projects on cancer

Projects granted during 2016 that have a primary purpose of translational and applied research - human cancer.

• From: Home Office
• Published: 21 December 2017

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Non-technical summaries: projects granted in 2016, volume 16

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Details

This document outlines the projects granted under the Animals (Scientific Procedures) Act 1986 during 2016 with a primary purpose of translational and applied research - human cancer.

The following projects were granted:

• gene transfer to rodents to test for adverse effects and correct disease (gene therapy, vectors, cancer, friedreich ataxia.)

• evaluation of novel anticancer agents (evaluation, novel, anticancer, agents)

• regulatory mechanisms in normal haematopoiesis (stem cells, haematopoiesis, leukaemia)

• development of new biological anticancer agents (cancer, virotherapy, targeted, biologic)

• evaluating new cancer therapies (lung cancer models, drug discovery)

• thermosensitive nanoparticles for cancer therapy (cancer treatment, drug development, liposomes, theranostics)

• mouse models of pancreatic cancer and therapy (pancreatic cancer, treatment, tumour stroma)

• anticancer drug discovery and target validation (anticancer, drug, discovery, target, validation)

• modelling bone-tumour interactions in metastasis (metastasis, breast/prostate cancer, myeloma, bone)

• novel biologicals for tumour immunotherapy (tumour immunotherapy; antibodies; adjuvants; targeted delivery)

• signal transduction in lung cancer pathogenesis (lung, cancer, autophagy, NF-κB, therapy)

• molecular imaging in cancer (molecular, imaging, cancer)

• development of new anticancer therapies (cancer, drugs, translation, biomarkers)

• mouse models of tumour growth and progression (cancer, metastasis, therapy, transplantation)

• in vivo imaging in cancer models (imaging, cancer, diagnosis, therapy)

• cancer therapy-efficacy licence (oncology, tumour, efficacy, pharmacodynamic)

• understanding and targeting the drivers of malignancy (cancer, prevention, treatment, metastasis)

• regulation of normal and malignant blood cells (stem cell, leukaemia, microenvironment, niche, self- renewal)

• oncolytic hsv as an anti –cancer therapy (oncolytic , cancer therapy)

• stem cell function in tissue regeneration, diabetes and cancer (stem cells, cancer, diabetes)

• modelling cancer predisposition by BRCA2 mutations (cancer; genetic alteration; pancreatic cancer)

• genetic analysis of tumour development (cancer, tumour, inflammation, therapy, imaging)

• tumour models for therapy of advanced cancers (tumour, metastasis, novel drugs, imaging)

• understanding inflammation, fibrosis and cancer (scarring, cancer, drugs)

• signalling pathways in cancer, inflammation, and metabolism (NF-κB, cancer, therapy, inflammation, metabolism)

• platelets and cardioprotection in cancer (platelets, cancer, cardio-toxicity, metastasis)

• oncology models (oncology, immunology, therapeutics)

• haematopoietic and leukaemia stem cell regulation (haematopoiesis; stem cells; leukaemia; lymphoma; leukaemia stem cells; novel therapy)

• novel strategies to target cancer (cancer, microenvironment, immunotherapy)

• engineered mice for gene function analysis (cancer, gene function, mouse, embryonic stem cells, embryonic development, developmental defect)

• studying the origins of cancers from stem cells (paediatric, adult, epithelial, cancer, biology)

• xenopus as a model for development and drug discovery (xenopus, developmental biology, cancer, stem cell biology)

• hypoxia and angiogenesis in cancer therapy (hypoxia, angiogenesis, cancer)

• mechanisms of metastasis (metastasis, myeloid cells, coagulation, extracellular matrix)

• induction of anti-tumour immunity (cancer, white cells, immune-therapy)

• modelling cancer biology and therapy in mouse (breast mammary cancer metastasis xenograft)

• establishment of patient derived xenografts from biopsy samples (cancer, tumour, biopsy, tissue generation)

• pancreatic cancer: biology and therapy (pancreatic cancer, pancreatitis, therapeutic targets)

• colorectal cancer initiation and progression (colorectal, cancer, RNA, genes)

• model systems to improve cancer immunotherapy (cancer, immotherapy, mouse)

• implantable microsystems for cancer therapy

• study and manipulation of immune-regulatory receptors to improve cancer therapeutics (cancer, immunology, immunotherapy, checkpoint)

• preclinical evaluation of cancer therapeutics (cancer, chemotherapy, immune-oncology)

• personalised tumour graft (tumour, human, personalised)

• assessment of novel cancer therapeutics (tolerability, pharmacokinetics, cancer, mouse, rat)

• enhancement of targeted radiotherapy of cancer (targeted, radiotherapy)

• the molecular basis of lymphoma and leukaemia (lymphoma, leukaemia, mouse models)

• pre-clinical assessment of new anticancer agents (oncolytic virus, immustimulation, vaccine, combination treatment, anti-cancer agent)

• analysing cancer: immune cell interactions involved in metastasis (cancer, imagine, animal models, immune system, cell signalling)

• generating new mouse models of human cancer (cancer, model, transgenic)

• skin cancer survival in the aging population (melanoma, microenvironment, squamous cell carcinoma, aging)

• mouse models for tumour stem cells and anti-tumour efficacy studies (cancer, brain tumours, tumour growth, invasion)

• developing an ocular melanoma model for drug discovery (ocular melanoma, uveal melanoma, patient derived xenograft MEK)

• adoptive T cell therapy for cancer (cancer, T lymphocytes, T-cell receptor, immunotherapy, adoptive therapy)

• drug evaluation in pre-clinical oncology models (cancer, pre-clinical, efficacy, models, imaging)

• cellular immunotherapy of disease (gene-modified immune cells, tumour immunity)

• MYB proteins and myeloid disease susceptibility (stem cells, bone marrow, blood cells, leukaemia, ageing)

• interrogating the immunology of cancer and the development of cancer therapeutics (vaccine, therapeutics, cancer, immune cells)

• pancreatic cancer – improving our understanding and therapeutic options (pancreatic cancer, therapeutic, genotype/phenotype)

• vaccine development and immunotherapy (cancer therapy, vaccine, therapeutic antibody)

• regulation of tumour growth and metastasis by sodium channels (antiepileptic drugs, breast cancer, invasion, metastasis, sodium channels)

• immune cell mechanisms in cancer and infection (infection, cancer, immunology)

• immune and biological therapies for cancer (cancer, virus, immune system)

• modelling a gene family in human disease (cancer, heart, skin, inflammation)

• cancer therapy – enabling licence (tolerability, pharmacokinetics, tumour, surrogate)

• sarcoma, bone niche, microenvironment and therapy (cancer, microenvironment, biomarkers, therapy)

• hematopoiesis in development, aging and malignancy (stem cells, development, leukemia, aging, transplantation)

• in vivo evaluation of enadenotucirev derived viruses (oncolytic, adenovirus, cancer, immunotherapy)

• normal and leukemic blood cell development (stem cells, infant leukaemia, transplantation)

• regeneration/neoplasia of nervous system and muscle (stem cells, organ regeneration, brain tumour)

Published 21 December 2017