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We hope you have enjoyed this limited-length demo
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- View the Talks
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1. Adaptive clinical trials: overview 1
- Prof. Yu Shyr
-
2. Adaptive clinical trials: overview 2
- Prof. Yu Shyr
-
3. Bayesian adaptive designs for clinical trials
- Prof. Benjamin Saville
-
4. Adaptive clinical trial design: randomization
- Prof. Hao Liu
-
5. Adaptive designs for phase I trials 1
- Prof. Anastasia Ivanova
-
6. Adaptive designs for phase I trials 2
- Prof. Anastasia Ivanova
-
7. Case studies of adaptive early phase trials
- Prof. Daniel Normolle
-
8. Phase II clinical trials - traditional approaches
- Prof. Fei Ye
-
9. Phase II clinical trials - Bayesian methods
- Prof. Fei Ye
-
10. Seamless phase II/III trials
- Prof. Elizabeth Garrett-Mayer
- Mr. Nathaniel O’Connell
-
11. Frequentist approaches: sample size in adaptive clinical designs
- Prof. Tatsuki Koyama
-
14. Ethical issues in adaptive clinical trials
- Dr. Spencer Phillips Hey
-
15. Implementation of adaptive methods in early phase clinical trials
- Prof. Gina Petroni
-
16. Design early phase drug combination trials: methods
- Prof. Ying Yuan
-
17. Design early phase drug combination trials: software
- Prof. Ying Yuan
-
18. Adaptation in likelihood trials
- Prof. Jeffrey Blume
Printable Handouts
Navigable Slide Index
- Introduction
- Software
- Linearization design
- Linearization design: trial example
- Install R package "BOIN"
- Obtain escalation / de-escalation boundaries
- Select the MTD
- Generate operating characteristics
- BOIN drug-combination design: get.boundary
- BOIN drug-combination design: next.comb
- BOIN drug-combination design: select.mtd.comb
- BOIN drug-combination design: trial example
- Generate operating characteristics (1)
- Generate operating characteristics (2)
- Obtain escalation / de-escalation boundaries (1)
- Conduct the trial (1)
- Conduct the trial (2)
- Conduct the trial (3)
- Select MTD at the end of the trial
- Waterfall design to find MTD contour (1)
- Waterfall design to find MTD contour (2)
- Waterfall design: trial example
- Generate operating characteristics (3)
- Generate operating characteristics (4)
- Obtain escalation / de-escalation boundaries (2)
- Conduct the trial (4)
- Conduct the trial (5)
- Conduct the trial (6)
- Conduct the trial (7)
- Desktop application with GUI
- Desktop application: model parameters
- Desktop application: simulation run
- Desktop application: trial conduct
- Summary
- Key references
Topics Covered
- Software
- Linearization design
- BOIN drug-combination design
- Waterfall design
- Desktop application with graphical user interfaces
Talk Citation
Yuan, Y. (2017, May 29). Design early phase drug combination trials: software [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved December 21, 2024, from https://doi.org/10.69645/OLSK1660.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Ying Yuan has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
Design early phase drug combination trials: software
Published on May 29, 2017
33 min
A selection of talks on Pharmaceutical Sciences
Transcript
Please wait while the transcript is being prepared...
0:00
Hello, I am Ying Yuan.
I'm a professor in Biostatistics
at MD Anderson Cancer Center.
In the first part,
we have talked about the three designs
to find a single MTD or MTD contour.
So in this part we're going to focus on
how to implement those three designs
using our existing software.
So we are going to go through each of them
and show you how to use the software
to design specific trial examples.
0:27
So right now, we switch to the software.
So, so far we have talked about several designs
to find the MTD or MTD contour.
And from a practical point of view,
the important thing is that
we have the software to implement the design,
and how can we use it in practice.
So the important reason
we chose those three designs
is because it is very easy
to use the software for those designs.
And essentially they can be implemented
using the R package "BOIN"
available from the CRAN.
And then in addition, if you don't like R,
there is also Standalone, a graphic user
interface-based software available
from MD Anderson Biostatistics Software
downloaded from the website.
Here I give the link,
if you are interested, you can download it.
And in addition,
we also provide a statistical tutorial
and protocol template.
So this is listed on my website
- you can check it out.
1:18
Okay, so right now we are
going to demonstrate
how to use the software to design
combination trials, step-by-step.
The first design we are going to talk
about is the linearization design.
So this is the design used to find a
single MTD for the combination trial.
And because this linearization design
uses the BOIN design,
it is very simple,
because essentially the first thing
you need is to get a boundary.
So recall, for this BOIN design,
what you really need
is that escalation boundary
and a de-escalation boundary.
Once you have those two
boundaries, you can make a decision
of dose assignment.
So that is why the first function
is "get.boundary."
It is used to generate escalation
and de-escalation boundaries
So once we have a boundary,
we can conduct a trial.
Once we finished the trial,
the only thing we need is to select the MTD.
So that's why we have a second function
called "select.mtd."
So essentially what it does is
it helps you select MTD at the end of trial
based on isotonically transformed estimates.
So, those two functions are enough
to conduct the trial in practice,
but when we prepare a protocol a lot of times
we have to show the
operating characteristics of the design.
So essentially, we want to do a simulation
to show the performance of the design.
So that's why we have a third function
called "get.oc."
So this is used to generate the
operating characteristics,
you can use it for simulation purposes.