Cellular Therapies tissue manipulation and clinical solutions Cell Therapies
 
Cell Therapies delivers flexible solutions across the full spectrum of clinical trials involving cell and tissue manipulation
 
 
Publications by Jyoti Arora
  1. Newly Developed Nanoparticles for Cell Tracking Newly developed nanoparticles for cell tracking using magnetic resonance imaging .PDF 1.42MB »
Publications
1
Newly Developed Nanoparticles for Cell Tracking

Giovanni Mandarano, Jyoti Arora, Dominic Wall, Simon Harrison, Noelene Bergen, Dodie Pouniotis and Peter Eu
Newly developed nanoparticles for cell tracking using magnetic resonance imaging .PDF 1.42MB

The utilisation of magnetic resonance imaging (MRI) to noninvasively monitor cells using superparamagnetic iron oxide nanoparticles (SPIONs) as MRI contrast agents has been one of the major research focuses over the past several years. The ability to use MRI to image longitudinally offers an invaluable opportunity to track the migration, persistence and distribution of cell based therapeutics in vivo in humans.

Current approaches for cell labelling have focused on using commercial SPIONs with varying success. Therefore, there is a clinical need to develop SPIONs that are non-toxic, with appropriate size and high MRI contrast. We have utilised SPIONs with a silica coating to investigate the labelling ability and contrast enhancement of CD45+ and CD34+ expressing cells.

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2
Commercializing Therapies Alongside an Academic Institution

Ray Wood Managing Director Cell Therapies Pty Ltd
Commercializing Cell Based Therapies within or alongside an Academic Institution .PDF 840Kb

Cell Therapies P/L is an independent CMO specialising in translational medicine where cGMP skills are required. We would appear to have achieved a novel position in that we are a successful commercial venture running inside/alongside an academic institution.

We are a multidisciplinary resource with a track record of translating research protocols into successful clinical trials. Our clients are organisations that need to manage their risk profile and have embraced an outsourcing policy.

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3
First Culture Expanded Adult Stem Cell Therapy

A. Evans, N. McCarthy, D. Wall, K. Stokes, M. Bleasdale, D. Ritchie, H.M. Prince, K. Kelly and S. Itescu
Obtaining Manufacturing Approval for the First Culture Expanded Adult Stem Cell Therapy under an Evolving Regulatory Framework: Challenges and Opportunities .PDF 50Kb

In 2002, the Australian Government committed to a new framework to allow biological products to be regulated as a distinct class of goods. The new legislation was passed by the Senate in 2010 and will be implemented by 31 May 2011. Administered by the Therapeutics Goods Administration (TGA), and known as the “Biologicals Framework” it will radically reshape the regulatory environment applying to cellular therapies for both existing licence holders and potential applicants. Products will be divided into four categories based on degree of manipulation, intended use and risk.

Preparing a licensure submission is demanding at any time: doing so in the context of an evolving regulatory framework, and with a novel therapy, compounds the challenges involved. We present our experiences in navigating this pathway and discuss the challenges and opportunities that we have encountered in the process.

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4
Update on Peter Mac and CT Research Activities

One of the most exciting aspects of being a researcher at Peter Mac is the opportunity to take discoveries from the lab to the clinic.
October 2010
Effective collaboration between laboratory and clinical researchers is vital for improving the outcomes of patients with cancer .PDF 445Kb

Using basic research, clinical trials and collaboration with industry to maximise the future impact of research findings for cancer patients. Our translational research aims to foster dialogue and collaboration between Cancer Research and the clinical divisions of Peter Mac, with the ultimate goal of accelerating the application of research findings into clinical practice.

The fusion of an integrated research environment within a dedicated specialist cancer hospital provides unique opportunities to support our translational focus. Close collaborations between laboratory and clinical researchers facilitates important developments in clinical practice, and ensures our continued leadership role in translating research findings into clinical practice to provide patients with new and better treatment options.

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5
Opening the Gates to Autologous Cellular Therapies

By Edward Scott MD, medical director and CEO of the Mid-South Regional Blood Center (Lifeblood) and Lifeblood Biological Services LLC in Memphis, Tennessee
Autologous Cellular Therapies .PDF 67Kb

Numerous autologous cell-based therapies currently are being developed in public and private biotech companies across the United States and, to a lesser degree, around the world.

Cell-based therapies may hold the promise of providing new opportunities for managing immune-mediated chronic diseases and some forms of cancer and for repairing or replacing degenerated tissues with regenerated healthy tissues.

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6
Analysis and Characterization of Antitumor T-cell Response

Nadege Bercovici, Nacilla Haicheur, Severine Massicard, Frederique Vernel-Pauillac, Olivier Adotevi, Didier Landais, Isabelle Gorin,J Caroline Robert, H. Miles Prince, Jean-Jacques Grob, Marie Thérése Leccia, Thierry Lesimple, John Wijdenes, Jacques Bartholeyns, Wolf H. Fridman, Margarita Salcedo, Estelle Ferries, and Eric Tartourwz
28/01/08
Analysis and Characterization of Antitumor T-cell Response 459KB

The primary goal of cancer vaccines is to induce CD8+ T cells specific for tumor-associated antigens (TAA) but the characterization of these cells has been difficult because of the low sensitivity of ex vivo assays. Here, we focused on TAAspecific CD8+ T-cell responses in melanoma patients after vaccination with autologous dendritic cells loaded with lysates derived from allogeneic tumor-cell lines (Lysate-DC).

Out of 40 patients treated, 16 patients developed immune response to tumor-cell lysate and/or CD8+ T cells specific for differentiation and cancer-testis antigens. TAA-specific CD8+ T-cell responses were detected by interferon (IFN)-g enzyme-linked immunospot after in vitro sensitization and were, either transient during the treatment period or delayed, that is, observed after completion of all vaccinations.

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7
Prediction of CD34+ PBSC Collection

P. Gambell, A. Yallouridis1 D. Wall, K. Stokes, A. Milner, M Dickinson, H. M. Prince
22/11/07
Prediction of CD34+ PBSC Collection .pdf 300 Kb

Despite its acceptance as an effective treatment option in a range of haematological & other settings, peripheral blood stem cell (PBSC) collection & cryopreservation for later re-infusion post- myeloablative therapy remains a highly resourceDespite it’s acceptance as an effective treatment option in a range of haematological & other settings, peripheral blood stem cell (PBSC) collection & cryopreservation for later re-infusion post- myeloablative therapy remains a highly resource consumptive procedure. consumptive procedure1

Our primary aim was to investigate the affect that mobilisation regimen had on the ability of the PB CD34 count (x106/L) to predict the collection CD34 (x106/kg).

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8
Tracking Dendritic Cells

Miles Prince1*, Dominic M Wall1*, David Ritchie1*,Dirk Honemann1*, Simon Harrison1*, Hang Quach 1*, Mick Thompson2*, Rodney Hick2*,Eddie Lau2*, Jill Davison1,Maureen Loudovaris1*, Jude Moloney1*, Bruce Loveland3, Jacques Bartholeyns4*, Andrew Katsifis5*, Linda Mileshkin*
October 2007
Tracking Dendritic Cells PDF 211Kb

The objective of this study was to determine the in-vivo distribution of dendritic cells (DC) when given to patients (pts) with Multiple Myeloma (MM).

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9
Technological Trajectories and Stem Cell

Sarah Haecker, Ray Wood
September 2007
Technological Trajectories and Stem Cell "Dominant Design" .PDF 805Kb

Collaborating with Ray Wood, the Managing Director of Cell Therapies Pty Ltd, we expand on the premise of the primary article and further discuss the likelihood and attributes for the emergence of a dominant design in the stem cell industry. First of all, we need draw a distinction between a dominant cell type and a dominant commercial design. By utilizing the concept of technology "factors" or "trajectories," we will provide an outline of how the coincidence of multiple technological solutions and commercial dynamics (each with their own development path or "trajectory") will influence the makeup and timing of a dominant design.

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10
Transplantation of Autologous Peripheral Blood Stem Cells

A. Yallourdis, P. Gambell, D. Wall, K. Stokes, H. M. Prince
View Poster .PDF 647 kb

High-dose myeloablative therapy in conjunction with Autologous Peripheral Blood Stem Cell (APBSC) transplantation is being used with increased frequency to treat a range of haematological malignancies including Multiple Myeloma (MM), Non-Hodgkin Lymphoma (NHL) and Acute Myeloid Leukemia (AML).

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11
Cancer Vaccines/Adjuvants/Delivery - Lisbon

For Cancer Vaccines/Adjuvants/Delivery for the Next Decade 5-7 Septembre 2005, Lisbon Portugal
September 2005
Cancer Vaccines/Adjuvants/Delivery - Lisbon .PDF 77Kb

The investigational drug Uvidem® is a cryopreserved autologous dendritic cell vaccine for the treatment of patients with advanced/high risk malignant melanoma. We have standardized a clinically compatible process to generate large quantities of monocyte-derived dendritic cells (DCs), in serum-free medium containing GM-CSF and IL-13. The vaccine includes DC loaded with lysates produced from 3 allogeneic melanoma tumor cell lines: M44, COLO 829 and SK-MEL-28.

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12
IDM Poster ASCO

I. Gorin, M. Prince, J. Grob, M-T. Leccia, T. Lesimple, E. Ferriès, N.Bercovici, E.Tartour, R.Taylor, C. Robert Hôpital Tarnier-Cochin Paris France; Peter MacCallum Cancer Centre, East Melbourne Australia; Hôpital Ste Marguerite Marseille France; Hôpital Michallon Grenoble France; Centre Eugène Marquis Rennes France; IDM S.A. Paris France; Hôpital Européen Georges Pompidou Paris France; Institut Gustave Roussy Villejuif France
May 2005
A phase I/II study of a multivalent dendritic cell vaccine in patients with metastatic melanoma .PDF 203Kb

CONCLUSIONS According to protocol objectives: ��Treatment is feasible ��Treatment is well tolerated: most AEs were mild and not related to treatment ��Treatment induced an immune response in some patients, not significantly associated with matured or non matured dendritic cells ��No Complete or Partial Response according to RECIST criteria but disease stabilization in 10 patients

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13
IDM Press Release ASCO

IDM will present phase III trial results for it's melanoma cancer vaccine Uvidem® at ASCO (Orlando) on May 15 2005
May 2005
IDM Press Release ASCO .PDF 54Kb

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14
In Vivo Cell Tracking

In Vivo DC Tracking
Cell Tracking Powerpoint Presentation .PPT 858Kb

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15
Cell processing

H. Miles Prince, Dominic P. Wall, Kerrie H. Stokes, Ray Wood, Scott R. Burger, Patrick Coghlan and Neil Boyce
October 2004
Cell processing for clinical trials and commercial manufacture .PDF 472Kb

"We elected to design and construct a facility that would remain as “generic“ as possible, to enable adaptation to potential future demands of CT. This design meets the technical and regulatory demands required to sustain cells in short- and long-term culture (process cleanroom) as well as meeting the sometimes conflicting requirements for gene transduction protocols (process cleanroom, containment). Because of our own long-term research objectives, we also incorporated more specialized equipment, such as a high-speed cell sorter for rare target cell isolation, within the cleanroom environment."

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16
I.S.C.T. Poster

C.M Wall, H.M Prince, L.Mileshkin, M.Thompson, J. Coverdale, R.J Hicks; Centre for Blood Cell Therapies, Peter MacCallum Centre, Melbourne
May 2004
I.S.C.T. Poster of Sequential tomographic tracking and localisation .PDF 2.2MB

Sequential tomographic tracking and localisation in vivo of dendritic and macrophage cells by various routes of administration into humans by in vitro labelling of cells with 111Indium oxine and 18F fluoro-deoxyglucose.

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17
Regulation of Cell Therapies

Dominic Wall and Miles Prince
August 2003
Regulation of Cellular Therapies: the Australian Perspective .PDF 82Kb

"The first step in the process of regulating cell-based products was taken in 1991, when the code of good manufacturing practice (cGMP) for 'Blood and Blood Components' was instituted." "The TGA will become the formal regulator of all cell-based therapies and laboratories will be required to apply for cGMP auditing and licensing. It is likely that the Foundation for the Accreditation of Cellular Therapy (FACT) guidelines or others of a similar nature, will form the basis of one of the regulatory standards for HSC processing. Of particular note is the the inclusion of apheresis as an integral component of cGMP licensing.

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In association with Peter MacCallum Cancer Research - Genetics, Genomics and Biotechnology BioMelbourne Network - Progressing BioIndustry
Cell Therapies Pty Ltd ABN 100 285 916