Phase I Retreat Addresses Phenomenal Program Growth and Future Directions second annual retreat of the Phase I T10thheWorking Group and Program held Nov. reverberated with issues surrounding the program’s remarkable growth since its inception in July 2004, marked by both extraordinary achievements and the growing pains that inevitably accompany rapid progress. “There is a tremendous demand for new drugs, since many of the 65,000 patients seen last year at M. D. Anderson had metastatic disease that is not curable or very treatable,” remarked Razelle Kurzrock, M.D., director of the Phase I Program. “The patient comes first,” said Dr. Kurzrock. “There has been a dramatic increase in patient volume in the program’s Clinical Center for Targeted Therapies. Yet we are inundated by so many referrals that we can’t meet the demand for the number of patients who want to be seen.” Over the past year, the Phase I Program also set a precedent for offering more clinical trials open to special populations. This included elderly and pediatric patients as well as patients with renal or hepatic insufficiency or CNS metastases. To keep up with requests to try new agents, Dr. Kurzrock noted that “we need to increase the number of high-impact, broad Phase I trials to about 50 while keeping the emphasis on quality and moving forward in the scientific arena. We also need to strengthen and expand the program’s infrastructure of faculty, research nurses, and study coordinators. These advances will enable us to serve patients well, test the highest priority compounds, and establish the next stage of scientific direction— individualized therapy.” In his presentation, David Stewart, M.D. addressed the advantages and disadvantages of conducting NCI-sponsored studies. He noted that while they tend to be under funded and the approval process is cumbersome, the NCI offers a huge number of molecules, additional generous funding mechanisms such as R21 and Translational Research Initiative grants, and a pioneering initiative to combine investigational agents. Overall, participants were in agreement to increase the number of NCI-sponsored studies—a top priority of division head Waun Ki Hong, M.D. as well. NOVEL DRUGS IN THE PIPELINE Roy Herbst, M.D., Ph.D. introduced the summary of the breakout session on novel drugs in the pipeline by asking, “How are we getting drugs for Phase I studies? How can we do better?” Francis Giles, M.D. answered, “The institution can’t do any better to get more drugs. The drug pipeline at M. D. Anderson is excessively and gorgeously full. We have access to any drug any time we want. But we need to get our own logistics in order. We need better implementation. We need to put the brakes on the Why M. D. Anderson? • We lead the way nationally in National Cancer Institute grant award dollars, receiving about $107 million annually. • We have ten Specialized Programs of Research Excellence (SPORE) awards from the National Institutes of Health, more than any other institution in the country. • We see about 65,000 cancer patients per year. bureaucracy. Now that we have plenty of trials, the next step is to establish a biologic rationale for putting patients in the studies.” TRANSLATIONAL RESEARCH The translational research breakout group led by Dr. Herbst and William Bornmann, Ph.D. called for more interaction between groups such as the collaboration between Experimental Diagnostic Imaging and Experimental Therapeutics to foster molecular targeting, along with increased institutional support to launch investigators looking for partners, to bring more molecules to the clinic. They suggested creating mechanism-driven task forces that are based on common objectives, such as an anti-angiogenesis task force, that extend beyond division and department boundaries. Drs. Bornmann and Herbst reminded participants about the organic compound synthesis laboratory, where compounds can be made and labeled here at M. D. Anderson. CHALLENGES FOR CONDUCTING CLINICAL RESEARCH A challenge that surfaced repeatedly throughout the retreat was the rapidly escalating regulatory burden, which affects everything from the number of trials a research nurse can coordinate to the ability to enroll a patient before it is too late in his or her disease progression. The irony is that this regulatory increase is occurring despite the documented safety of Phase I studies and the markedly lower toxicity of the new targeted molecular therapies compared with classic chemotherapy. “Phase I trials are enormously safe,” Dr. Kurzrock commented. “The NCI documented that there was less than a continued on page 4 Lymphomas Respond to Interleukin-6 Targeted Therapy with Castleman’s disease and Pearlyatients mantle cell lymphoma are showing evidence of response to CNTO 328, a Dr. Kurzrock also expects to see future trials of CNTO 328 in solid tumors, since interleukin-6, an inflammatory cytokine, has been implicated in the development of many other tumors as well. monoclonal antibody that targets CDK Inhibitor Offers Significant interleukin-6, without significant Anti-Tumor Activity toxicity. Two of the first three ali Papadimitrakopoulou, M.D., associate patients in this trial have professor, Thoracic/Head and Neck responded so far to CNTO 328, Medical Oncology, is principal investigator noted the trial’s principal investiof a first-in-humans Phase I study of gator, Razelle Kurzrock, M.D. For RO4584820, a novel and selective cyclin example, a middle-aged woman Razelle Kurzrock, M.D. with Castleman’s disease, a rare dependent kinase inhibitor (mainly CDK1, CDK2, and CDK4), for patients with solid and difficult-to-treat lymphoid disorder, tumors. CDKs regulate cell cycle progression experienced relief from her presenting sympby phosphorylation-mediated inactivation of toms of fever and rash within 24 hours of various tumor suppressor proteins (e.g., the therapy with CNTO 328. Her PET scans retinoblastoma gene product RB). This agent showed normalization after about three has exhibited significant tumor growth inhibimonths of treatment. After failing other tion and apoptosis induction in preclinical treatment, an elderly man with mantle cell trials. The primary objectives of this study are lymphoma exhibited a marked decrease in to determine the maximum tolerated dose tumor metabolic activity within the initial (MTD) and the recommended Phase II dose eight weeks of therapy with CNTO 328 and level. Secondary objectives are to determine continues to do well. the drug’s safety and tolerability as well as its “CNTO 328 targets tumor cells without pharmacokinetics, phamacodynamics harming healthy tissue,” Dr. Kurzrock noted. (inhibition of retinoblastoma phosphoryla“This is true targeted therapy developed on tion), and pharmacogenomic profile. a rational, hypothesis-driven basis.” “The orderly progression of the cells Department of Lymphoma/Myeloma chair through the cell cycle in normal cells is assured Larry Kwak, M.D., Ph.D., and assistant by the function of several checkpoints, but professor Luis Fayad, M.D, who are treating cancerous cells do not have functional checkpatients enrolled in the study, are also points. Because the dysregulated activity of excited about this drug’s prospects. “The CDKs plays a direct role in overcoming the highly favorable response of patients with normal checkpoint function, the CDKs have Castleman’s disease could be expected been considered the prime molecular targets because interleukin-6 is centrally involved in for the therapeutic growth control of cancer. A the pathogenesis of Castleman’s disease and distinct advantage of this drug is that its antimyeloma, said Dr. Kwak. “That’s what tumor activity is unaffected by the schedule makes CNTO 328 a truly targeted therapy.” employed, therefore making it amenable to This multi-site, Phase I study combination with other drugs,” noted Dr. sponsored by Centocor is actively Papadimitrakopoulou. “We selected a dosage recruiting patients with non-Hodgkin’s schedule that will best accommodate combinB-cell lymphoma, multiple myeloma, or ing it with other drug regimens.” Weekly Castleman’s disease. Study candidates intravenous doses of the drug will be adminismust be at least 18 years old, have tered on a three-week treatment cycle basis. measurable disease without metastases to Enrollment in this study of adults with the CNS, and have the ability to visit measurable, locally advanced or M. D. Anderson every week and receive metastatic solid tumors is drug infusions every other week. underway. Patients are not Another advantage of this drug is eligible if they have taken a its combinability with other drugs in CDK inhibitor or inducer or if future clinical trials to maximize response they are currently taking a potential. “Because there is no strong inhibitor of CYP3A4 overlapping toxicity with other drugs, such as ketoconazole. These CNTO 328 can be easily combined with other treatments,” said Dr. Fayad. Vali Papadimitrakopoulou, M.D. drugs would interfere with V precise assessment of the MTD. Because RO4584820 may lower blood pressure significantly, patients with severe congestive heart failure, cerebrovascular disease, or cardiovascular disease are excluded, as are patients who take antihypertensive drugs. A New Happy Ending to Arsenic and Old Lace? ften called the poison of kings and king O of poisons, arsenic has been used to treat cancer for more than 2,400 years. Its inorganic form has been associated with severe liver toxicity and lung and skin cancer; however, arsenic trioxide is FDA-approved for the treatment of acute promyelocytic leukemia. ZIO-101, a novel organic arsenic formulation, may be safer and have greater cell penetration than its predecessor. Sponsored by Ziopharm, a Phase I clinical trial of ZIO-101 in advanced solid tumors aims to determine its safety and the maximum tolerated dose, pharmacokinetic profile, and anti-tumor effects. Adults and children of any age may be eligible to Luis Camacho, M.D. participate in this study, but must have measurable cancer lesions. Luis Camacho, M.D., M.P.H., principal investigator, noted that although it is too early to see signs of response to the drug, the first patient enrolled in the study (a patient with renal cell cancer) not only remained stable, but exhibited the complete disappearance of two small brain tumors. “The main concern is cardiac and hematological toxicity, but we are not seeing many side effects so far,” he said. Because previous experience with arsenic has resulted in prolongation of heart conduction times and cardiac arrhythmias, participants in this trial will undergo outpatient cardiac monitoring before and after each intravenous dose. Although the mechanism of action of ZIO-101 is not well understood, it is believed to induce apoptosis and cell cycle arrest in solid tumors whereas the mechanism in hematologic malignancies is more likely through terminal differentiation. “This is also a differentiating agent,” said Dr. Camacho. “The theory is that ZIO-101 takes abnormal cells and differentiates them to become normal cells.” He noted that it is too soon to ascertain future prospects for combining ZIO-101 with other drugs. CTRC RISES TO CHALLENGE OF MONITORING PHASE I PATIENTS ON COMPLEX REGIMENS espite the increasing complexity of Phase I studies, the Dstrives Clinical and Translational Research Center (CTRC) to provide a nearly around-the-clock, optimal environment for the treatment of patients on Phase I clinical trials, sampling for pharmacokinetics, and EKG monitoring for cardiac side effects—all while providing outstanding patient care. The CTRC’s Steering Committee gives priority to selecting early phase investigational drug protocols that could not be conducted in a standard clinical unit because of their intensity, complexity, or stringent time requirements, according to Daniel Karp, M.D., the center’s medical director. In recent years, the sheer number of events monitored per study has been rising The number of steadily. “In one treatment cycle for one patient, we may have patient visits to the CTRC more than 100 auditable events has risen dramatically, with or checkpoints. In some proto1,000 visits in August alone and cols, we are required to collect close to 250 experimental treatments blood samples every 15 minutes. administered per month. It’s not unusual to get ten blood samples per day from a single Daniel Karp, M.D. patient,” said Dr. Karp. “We’ve also seen a sharp rise in cardiac event monitoring such as the Q-T interval. One drug study requires an EKG every few minutes.” The number of patient visits to the CTRC has also risen dramatically, with 1,000 visits in August alone and close to 250 experimental treatments administered per month. To help keep track of patient progress on the trials, clinical research program coordinator Jeffrey Rogers is developing an electronic project management scheme using protocol icon graphics. To successfully monitor about 25 to 35 ongoing intensive studies on any given day, while treating about 500 patients in clinical trials per year, the CTRC requires superior management, which, in addition to Dr. Karp, is provided by clinical administrative director Cynthia Stewart, M.S., R.N. and nurse manager Vivian Dorsey, R.N., B.S.N. Stewart’s primary responsibilities as clinical administrative director of the CTRC are staff recruitment, coordinating the CTRC Steering Committee while helping to screen protocols submitted for CTRC support, and supervising the laboratory and nursing care. Her newest challenge has been the laboratory, when all laboratory responsibilities from sample collection and storage to shipping were moved to the CTRC in June, 2005. With the assistance of systems analyst Jerry Gilbert, the CTRC is in the process of automating an electronic invoicing and billing system. They are also exploring development of other databases as alternative to paper systems in the laboratory and nursing. Dorsey feels that the main challenges she faces as nurse manager of the CTRC are related to the tremendous growth the center has experienced, since opening in October 2002. “This growth is great because it demonstrates that the doctors are aggressively searching for new agents and modalities to treat cancer,” she concluded. In addition to providing oversight and guidance to the CTRC staff, Dorsey works with the research nurses and PIs to ensure accurate protocol implementation and compliance. “The CTRC’s greatest strength is our nursing care,” said Stewart. “We have wonderful nurses,” Dr. Karp concurred. Stewart added, “The CTRC is more nurse-run than a hospital. CTRC nursing is highly autonomous and requires skilled nurses who pay acute attention to detail. In collaboration with the research teams, the nurses participate in a more independent form of nursing that focuses on direct transactions with the patients. A large part of the nurses’ responsibility is to make sure things go according to protocol. The nurses become very familiar with the protocols and the drugs they give.” She noted that one of the most important functions of the nurses on the CTRC is anticipating side effects. “They are very meticulous about observing side effects and not missing symptoms that may be related to the study agent,” she added. “They proactively ask the patients about symptoms like pain because patients often do not report pain because they think it’s normal with cancer. Instead, they may be experiencing musculoskeletal pain from the medication.” The CTRC nurses then communicate such information to the research team. “The nurses see drug reactions often enough that they know how to deal with them swiftly and skillfully so that the patients are well protected and taken care of. As a result, the patients are very satisfied. They love the nursing care they get here, and they like the unit.” A new measure introduced to improve quality control in the CTRC is the conduction of an internal audit for each protocol after the first or second patient has been entered into the study. “This allows us to discover problems early enough to fix them,” Dr. Karp noted. “Our goal is to have zero errors.” Corresponding with growth in the Phase I Program, the CTRC has been scrambling to expand its services and laboratory capacity to keep up with the increasing volume of protocols and number of checkpoints and auditable events. The CTRC is expanding their hours beyond the current 12 hours a day, five days a week—first to 16 hours and eventually to a 24/7, around-the-clock schedule. Stewart is looking into redefining and reorganizing the roles of the clinical nurses, their background and experience, and additional training needs in research and cardiac monitoring. She is currently in the process of hiring a manager of clinical protocol administration and medical assistants. The protocol manager will assist with development of CTRC budgets and serve as a liaison to the institution’s research teams. The medical assistants will assist with EKGs, vital signs, and blood draws. With the rapid growth in Phase I clinical trials, Stewart foresees needing to build an adequate infrastructure, which will include more nurses and other staff. “We want to recruit and retain the best people while keeping teamwork and morale at the highest level,” said Dr. Karp. “We’re planning for a big future,” Stewart concluded. PROTOCOL PI & STUDY COORDINATOR DRUG INFORMATION DISEASES COMMENT Includes CNS metastases Atiprimod Razelle Kurzrock, M.D. Fadi Braiteh, M.D. Inhibits IL-6 & VEGF Advanced cancers MPC-6827 Razelle Kurzrock, M.D. Terri Warren, R.N. Razelle Kurzrock, M.D. Fadi Braiteh, M.D. Tubulin inhibitor Good brain penetration Hypomethylating agent (azacitidine) with histone deacetylase inhibitor (valproic acid) Aziridine-derived iminopyrrolidone depletes glutathione Advanced cancers Azacitidine & valproic acid Advanced cancers Includes CNS metastases Advanced cancers, non-small-cell lung, breast, prostate) Advanced cancers Includes CNS metastases Conventional chemotherapy with proteosome inhibitor Advanced cancers Razelle Kurzrock, M.D. Susan Pilat, R.N., B.S.N. Razelle Kurzrock, M.D. Susan Pilat, R.N., B.S.N. Farnesyltransferase inhibitor Razelle Kurzrock, M.D. Susan Pilat, R.N., B.S.N. Razelle Kurzrock, M.D. Kathy Kehr, P.A. Faye Johnson, M.D., Ph.D. Naureet Dhillon, M.D., Joann Lim, PharmD, Ph.D. Vali Papadimitrakopoulou, M.D. Michelle Purdom, R.N. David Stewart, M.D. Kathy Kehr, P.A.C., B.S. Roy Herbst, M.D., Ph.D. Deborah Boughton, R.N. Roy Herbst, M.D., Ph.D. Deborah Boughton, R.N. Roy Herbst, M.D., Ph.D. Deborah Boughton, R.N. David Hong, M.D. Shobha Pai, P.A. Adenosine deaminase inhibitor Myelodysplastic syndrome Castleman’s disease, lymphoid tumors, myeloma Lymphoid malignancy Includes children any age. No CNS metastases, requires measurable disease, good left ventricular function (ejection fraction >50%) Amplimexon & Taxotere Razelle Kurzrock, M.D. Navneet Dhillon, M.D. XL 184 Razelle Kurzrock, M.D. Il-Ran Hwang Razelle Kurzrock, M.D. Deborah Broughton, R.N. Doxil, gemcitabine, & velcade Tipifarnib CNTO 328 Pentostatin Curcumin Ketoconazole & BMS-354825 RO 4584820 Low-dose decitabine PRO 1762 (TRAIL) AMG 706 AMG 386 Tipifarnib & Sorafenib ZIO-101 Satraplatin Satraplatin Includes CNS metastases, children 13 or older, platelets 50,000 or more Luis Camacho, M.D. Charla Parker, R.N. Luis Camacho, M.D. Charla Parker, R.N. Luis Camacho, M.D. Charla Parker, R.N. Met kinase & VEGFR inhibitor Antibody against IL-6 No CNS metastases Phase II Plant-derived chemical, inhibits NF-κB Inhibits Src family of kinases Pancreatic cancer Phase II Solid tumors Includes CNS metastases, requires biopsy CDK inhibitor Solid tumors Hypomethylating agent Advanced cancers Includes CNS metastases; requires biopsiable disease Requires biopsiable disease Tumor necrosis-related, apoptosis-inducing ligand Inhibits angiogenesis (VEGFR & Kit) Solid tumors, non-Hodgkin’s lymphoma Solid tumors No CNS metastases, requires measurable disease Closed to new patient accrual Inhibits angiogenesis Advanced solid tumors Combines farnesyltransferase inhibitor (tipifarnib) with raf kinase/ VEGFR inhibitor (sorafenib) Organic arsenic derivative Advanced cancers No CNS metastases Solid tumors Includes children any age Oral platinum Solid tumors Oral platinum Solid tumors Includes renal impairment & CNS metastases Includes hepatic impairment & CNS metastases THE UNIVERSITY OF TEXAS M. D. ANDERSON CANCER CENTER Continued on reverse side Active Protocols continued PROTOCOL PI & STUDY COORDINATOR Luis Camacho, M.D. Charla Parker, R.N. Cytotoxic, combined regional & systemic chemotherapy Advanced cancers Liver predominant diseases Hepatic arterial infusion of Taxol Luis Camacho, M.D. Charla Parker, R.N. Cytotoxic regional therapy Advanced cancers Liver predominant diseases Hepatic arterial infusion of cisplatinum with IV Doxil Monoclonal antibodies DRUG INFORMATION DISEASES COMMENT Antibody production Solid tumors Non-therapeutic Suberoylanilide hydroxamic acid, Pemetrexed, & Cisplatin Luis Camacho, M.D. Charla Parker, R.N. George Blumenschein, Jr., M.D. Forlisa Nauling, R.N. Histone deacetylase inhibitor with chemotherapy Solid tumors Imaging reproducibility study Lung & liver malignancy Includes CNS metastases, requires measurable disease Non-therapeutic PROTOCOL PRINCIPAL INVESTIGATOR DRUG INFORMATION DISEASES COMMENT DCE MRI, dynamic contrast enhancement MRI, & dynamic contrast enhancement CT Chaan Ng, M.D. Terri Warren, R.N. PI-0052 Razelle Kurzrock, M.D. Proteosome inhibitor Apomab Roy Herbst, M.D., Ph.D. E 7080 David Hong, M.D. Antibody stimulates apoptosis by triggering caspase activation Advanced or metastatic solid tumors MPC-6827 Luis Camacho, M.D. Combines 2 anti-angiogenic agents Advanced solid tumors Liposomal platinum Solid tumors AMG 655 AMG 386 & AMG 706 Roy Herbst, M.D., Ph.D. David Hong, M.D. Aroplatin Luis Camacho, M.D. LY 2275796 Yun Oh, M.D. Oncophage (HSPPC-96) & ATRA-IV Luis Camacho, M.D. TRAIL receptor-binding, tumor growth inhibitor Angiogenesis inhibitor Tubulin inhibitor Good brain penetration Liposomal tretinoin & autologous tumor-derived peptide vaccine Antisense, inhibits eukaryotic initiation factor Advanced cancers Solid tumors Advanced cancers Advanced cancers Renal cell carcinoma, metastatic melanoma, NSCLC, liver metastases from colorectal cancer Advanced cancers Refractory brain metastases Includes CNS metastases Phase I Retreat continued from ••••••••••••••••••••••• Director, Phase I Program Chair, Phase I Working Group Professor, Division of Cancer Medicine Razelle Kurzrock, M.D., F.A.C.P Phone: (713) 794-1226 • Pager: (713) 404-2397 E-mail: rkurzroc@mdanderson.org Co-Chair, Phase I Working Group Associate Professor, Dept. of Thoracic/Head and Neck Medical Oncology Roy S. Herbst, M.D., Ph.D. Phone: (713) 792-6363 • Pager: (713) 404-6323 E-mail: rherbst@mdanderson.org Co-Chair, Phase I Working Group Chief, Section of Developmental Therapeutics and Professor, Dept. of Leukemia Francis J. Giles, M.D. Phone: (713) 792-8217 • Pager: (713) 404-4621 E-mail: fgiles@mdanderson.org Assistant Professor, Phase I Program and Dept. of Melanoma Luis H. Camacho, M.D. Phone: (713) 792-5252 • Pager: (713) 404-5319 E-mail: lhcamach@mdanderson.org Assistant Professor, Phase I Program David Hong, M.D. Phone: (713) 792-2740 • Pager: (713) 404-0560 E-mail: dhong@mdanderson.org Clinical Administrative Director Cynthia D. Stewart, R.N., M.S.N. Phone: (713) 792-7996 • Pager: (713) 404-2802 E-mail: cstewart@mdanderson.org Research Nurse Supervisor Susan R. Pilat, R.N., B.S.N. Phone: (713) 745-3296 • Pager: (713) 404-2822 E-mail: spilat@mdanderson.org Research Nurse Supervisor Michelle A. Purdom, R.N. Phone: (713) 794-5177 • Pager: (713) 404-2989 E-mail: mapurdom@mdanderson.org Editor Carol A. Howland, M.S. Graphic Design/Photography Medical Graphics & Photography Phase I Clinical Trials Program Division of Cancer Medicine The University of Texas M. D. Anderson Cancer Center 1515 Holcombe Boulevard Houston, Texas 77030-4009 page 1 0.5 percent death rate from toxic events, which is extraordinary considering that patients entering these studies by definition have terminal progressive cancer and are expected to live only a few months.” There was concordance among participants that some of the regulatory requirements that were put in place to enhance patient safety, in fact, often served to compromise the individual patient’s welfare. For instance, once patients enter a protocol, if they want to continue receiving the drug, they have to follow the protocol exactly, even if certain protocol specifications are not in their best interest or interfere with important events in their lives. Daniel Karp, M.D. added that the goal of the pharmaceutical industry is to get the drug approved and we need to stay aware of the natural conflict of interest inherent in that goal when dealing with individual patients. Participants voiced the fears that we will end up regulating ourselves out of business and that investigator-initiated studies are particularly under siege. “Investigator-initiated studies are likely to lead to important new discoveries because they capitalize on the ‘M.D. Anderson Cancer Center brain trust,’ i.e., the expertise that faculty bring to M. D. Anderson,” Dr. Kurzrock remarked. “It is critical that we overcome these barriers.” Dr. Stewart added, “We need to be smarter about how we word our protocols so we don’t add more than is necessary to comply with federal regulations. The standard should be the code of federal regulations, not beyond.” This burgeoning regulatory burden has, in turn, increased the need for more research nurses and coordinators in the midst of a nationwide nursing shortage. Development of a study coordinator course is one solution under examination by Maurie Markman, M.D., vice president for clinical research. Dr. Kurzrock emphasized the need for teamwork within the program and collaboration with others to support the program’s growth. “The success of the program so far can be credited largely to a wonderful group of hard-working people who are committed to making things happen.” Dr. Giles introduced the cultural issue of the most appropriate home for Phase I studies within M. D. Anderson—residing in each department vs. a centralized program for broad-based Phase I studies. Dr. Kurzrock emphasized that the Phase I Program does only broad Phase I studies that cross disease boundaries, which hasn’t had a home at M. D. Anderson. “We are a difficult cultural fit in a disease-centered institution,” she said. “But based on the success and demand for the program so far, it appears that this program fills an important gap in the institutional clinical research infrastructure.” Addressing concerns about direct patient referral to the Phase I Program, Dr. Kurzrock said, “These patients are not accepted by other groups once they have exhausted other therapies. They must be allowed in somewhere. Cultural issues must not overcome common sense issues.” Dr. Karp added, “This is an unmet need. We must have a front door policy and do our part to get patients to the right place.” The Phase I retreat wrapped up with discussion of the following goals: • Move the program toward personalized therapy, fingerprinting patients to predict potential response, and identify preliminary subsets of responsive patients to use as a foundation for Phase II studies. • Have a large number of high-impact studies, aiming to investigate “the best molecules in the nation.” • Emphasize strongly the quality of patient care, keeping in mind that the patient must always come first, not the study. • Enhance the capacity of Phase I studies to serve as a conduit to Phase II efficacy studies, especially for uncommon tumors, so that early evidence of response can be quickly translated into new treatment. • Continue to foster team work and a collaborative atmosphere both within the program and in its interactions with other investigators throughout the institution, so that the ultimate goal of bringing new therapies to cancer patients can be met. • Further develop the Phase I infrastructure, from faculty to research nurses, coordinators and other personnel, in order to support program growth and excellence.
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