Jeffrey HendersonProfile page
Associate Professor
Leslie Dan Faculty of Pharmacy
Orcid identifier0000-0001-7636-2604
- Associate ProfessorLeslie Dan Faculty of Pharmacy
- 416-946-3090 (Work)
- 416-946-5571 (Work)
- University of Toronto, Pharmacy, Address: Rm 903, 144 College Ave., Toronto, Ontario, M5S 3M2, Canada
BIO
The laboratory's research is organized along three main themes:
Regulation of programmed cell death in the mammalian central nervous system.
EphB-mediated control of axon guidance / neural connectivity in the CNS.
Development and analysis of small molecule therapeutics relevant to PCD.
For a full list of lab core activities and databases, please see Homepage: http://db.phm.utoronto.ca/
Programmed cell death:
During neural development and following many forms of injury, damaged cells are eliminated through a cell autonomous process known as apoptosis or programmed cell death (PCD). Abnormal regulation of PCD is known to occur in a wide variety of cancers and neurodegenerative disorders including Amyotrophic lateral sclerosis, Alzheimer's disease, Parkinson's disease and Huntington's chorea. PCD also plays an important role in acute injury states such as spinal cord injury and stroke. Understanding the molecular mechanisms regulating PCD is therefore a critical feature of enhancing functional recovery following injury. The laboratory is investigating molecular interactions which are common to many forms of PCD/apoptosis. This research is aimed at characterizing key protein-protein interactions which control neuronal injury and survival following CNS insult. Our emphasis is on those neural circuits which govern motor control.
Axon guidance:
Meaningful functional recovery within the injured adult central nervous system requires both neuronal survival and appropriate re-innervation of injured neurons to neural targets. In order better understand the process of local axon guidance during mammalian development and following CNS injury we are investigating a family of axon guidance molecules known as the EphB family. We have previously demonstrated that these receptor tyrosine kinases play important roles in regulating the organization of several regions of the CNS, as well as being critical regulators of dynamic neural remodeling. We are currently attempting to understand the role which Eph receptors play in regulating several novel features of motor and sensory control in the CNS.
Molecular Therapeutics:
Through the use homologous gene targeting, the role which a specific gene plays in a given signaling process can determined in vivo. Over the past decade, our investigations have allowed us to identify key molecular interactions which govern specific forms of neural cell death. Modified variants these proteins can be introduced in a stable manner into cell lines where the dynamic nature of their interaction can be investigated in real time. Using such methodologies we have developed high throughput screening assays to assess the ability of thousands of small molecular interactors to influence specific elements of protein function with respect to cell injury. At present we have identified compounds capable of altering the pattern specific molecular interactions relevant to PCD. We are currently investigating the detailed mechanism of these agents and their ability to alter PCD in vivo.
Jeff Henderson’s research focuses on the molecular mechanisms regulating programmed cell death (PCD) in the mammalian central nervous system (CNS) in both normal and pathologic states, neural connectivity in the CNS as relates to Eph-family tyrosine kinases, and the development and delivery of small molecule therapeutics targeting these processes.
Media availability: TV, Radio, Print/Online
Regulation of programmed cell death in the mammalian central nervous system.
EphB-mediated control of axon guidance / neural connectivity in the CNS.
Development and analysis of small molecule therapeutics relevant to PCD.
For a full list of lab core activities and databases, please see Homepage: http://db.phm.utoronto.ca/
Programmed cell death:
During neural development and following many forms of injury, damaged cells are eliminated through a cell autonomous process known as apoptosis or programmed cell death (PCD). Abnormal regulation of PCD is known to occur in a wide variety of cancers and neurodegenerative disorders including Amyotrophic lateral sclerosis, Alzheimer's disease, Parkinson's disease and Huntington's chorea. PCD also plays an important role in acute injury states such as spinal cord injury and stroke. Understanding the molecular mechanisms regulating PCD is therefore a critical feature of enhancing functional recovery following injury. The laboratory is investigating molecular interactions which are common to many forms of PCD/apoptosis. This research is aimed at characterizing key protein-protein interactions which control neuronal injury and survival following CNS insult. Our emphasis is on those neural circuits which govern motor control.
Axon guidance:
Meaningful functional recovery within the injured adult central nervous system requires both neuronal survival and appropriate re-innervation of injured neurons to neural targets. In order better understand the process of local axon guidance during mammalian development and following CNS injury we are investigating a family of axon guidance molecules known as the EphB family. We have previously demonstrated that these receptor tyrosine kinases play important roles in regulating the organization of several regions of the CNS, as well as being critical regulators of dynamic neural remodeling. We are currently attempting to understand the role which Eph receptors play in regulating several novel features of motor and sensory control in the CNS.
Molecular Therapeutics:
Through the use homologous gene targeting, the role which a specific gene plays in a given signaling process can determined in vivo. Over the past decade, our investigations have allowed us to identify key molecular interactions which govern specific forms of neural cell death. Modified variants these proteins can be introduced in a stable manner into cell lines where the dynamic nature of their interaction can be investigated in real time. Using such methodologies we have developed high throughput screening assays to assess the ability of thousands of small molecular interactors to influence specific elements of protein function with respect to cell injury. At present we have identified compounds capable of altering the pattern specific molecular interactions relevant to PCD. We are currently investigating the detailed mechanism of these agents and their ability to alter PCD in vivo.
Jeff Henderson’s research focuses on the molecular mechanisms regulating programmed cell death (PCD) in the mammalian central nervous system (CNS) in both normal and pathologic states, neural connectivity in the CNS as relates to Eph-family tyrosine kinases, and the development and delivery of small molecule therapeutics targeting these processes.
Media availability: TV, Radio, Print/Online
ACADEMIC POSITIONS
- ProfessorUniversity of Toronto, Faculty of Pharmacy, Toronto, Canada1 Apr 2002 - present
- Assistant ScientistLunenfeld-Tanenbaum Research Institute, Division of Molecular Biology and Cancer, Toronto, Ontario, Canada., Toronto, Canada1 Jan 1997 - 1 Jan 2002
- Director, Murine Imaging and Histology (MIH) CoreUniversity of Toronto, Toronto, Canada1 Sep 2004 - present
- Director, Antibody / Epitope Recognition Database (AERD)University of Toronto, Toronto, Canada1 Jan 2006 - present
- Executive and Administrative Committee, Collaborative Program in NeuroscienceUniversity of Toronto, Toronto, Canada1 Sep 2012 - present
- MemberCentre for AI Research and Education in Medicine (CAIREM), Canada2 Nov 2020 - present
- Memberare Diseases Clinical Research Network (RDCRN, NIH), Canada1 Sep 2014 - present
- MemberCardiovascular Science Collaborative Program (CSCP), Canada8 Sep 2014 - present
- Advisory BoardTransgenics Core Facility, Toronto Centre for Phenogenomics, Canada1 Sep 2021 - 1 Sep 2006
DEGREES
- PhD, Physical BiochemistryUniversity of Illinois at Chicago, Chicago, United States1985 - 1990
LANGUAGES
- EnglishCan read, write, speak, understand and peer review
AVAILABILITY
- Masters Research or PhD student supervision
- Technical support
- Collaborative projects
- Join a web conference as a panellist or speaker
- Membership of an advisory committee
- Media enquiries