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CLINICAL BIOSTATS

Python Course

Python Course Overview:

Algorithms and Data Structures
Our Python programming course covers key concepts such as learning algorithms and data structures, which are crucial for building efficient and effective software programs. In the clinical trials industry, where large data sets are common, it’s essential to know how to handle data quickly and accurately.
 
The course covers a variety of learning algorithms with different Big O notations. For example, O(1) algorithms like constant-time hash tables, O(n) algorithms like linear search and bubble sort, and O(n log n) algorithms like quicksort and mergesort. We also cover fundamental concepts such as dynamic programming, greedy algorithms, and graph algorithms.
In terms of data structures, we cover fundamental concepts such as arrays, linked lists, stacks, queues, trees, and graphs. We explore how to use these structures to efficiently store and manipulate data. We also cover advanced data structures such as hash tables, heaps, and tries.
 
By the end of the course, participants will have a solid understanding of the fundamental concepts of learning algorithms and data structures, as well as the skills required to develop software programs that can handle large data sets with greater efficiency and accuracy. Join us on this exciting journey and take the first step towards a successful career in the industry.
 
Bayesian Clinical application
Our Python programming course includes a Bayesian statistics for clinical trials software program that covers the fundamentals of Bayesian methods for analyzing clinical trial data. Participants will learn how to program in Python to develop software that can perform Bayesian analysis for clinical trial data, including Bayesian methods for futility and toxicity gating.
 
The program covers the Bayesian gating methodology for toxicity and futility gating, which is an innovative approach that uses Bayesian methods to monitor the safety and efficacy of a treatment in real-time during a clinical trial. Participants will learn how to implement this methodology using Python programming, and how to apply it to simulated clinical trial data.
By the end of the course, participants will have a deep understanding of Bayesian methods for analyzing clinical trial data, and be equipped with the skills necessary to develop software programs that can effectively perform Bayesian analysis, including futility and toxicity gating.
BOIN Dose Escalation application
Our Python programming course includes a BOIN dose escalation software program, which teaches participants how to use this powerful methodology to determine the optimal dose for a clinical trial. BOIN, or Bayesian Optimal Interval design, is a popular method for dose escalation in Phase I trials, which aims to find the highest tolerable dose of a drug with minimal toxicity.
 
The program covers the fundamentals of the BOIN methodology, including how to set up a trial and define the necessary parameters, and how to use Bayesian statistics to analyze the results. Participants will learn how to program in Python to develop software that can implement BOIN designs and calculate the optimal dose.
By the end of the course, participants will have a deep understanding of the BOIN methodology and be equipped with the skills necessary to develop software programs that can effectively determine the optimal dose for a clinical trial.
Sample size/power calculation application
Our Python programming course includes a sample size/power calculation software program that provides participants with a comprehensive understanding of the factors involved in determining sample sizes for clinical trials. This program includes continuous, count, ordinal, and proportional calculations, which are essential for accurately determining the appropriate sample size.
 
The program also covers group sequential designs and the alpha spending approach, which allows for efficient testing of hypotheses while controlling type I error rates. These designs are used in clinical trials to ensure that the trial is terminated early if it is clear that one treatment is significantly better than another.
 
By the end of the course, participants will have a strong understanding of the principles behind sample size/power calculations and be equipped with the skills necessary to develop software programs that can accurately calculate the required sample size for a given clinical trial.
Survival analysis/Cox Proportional Hazards Model application
Our Python programming course includes a survival analysis/Cox Proportional Hazards model software program, which teaches participants how to analyze and model time-to-event data in clinical trials. The program covers the fundamentals of survival analysis, including the Kaplan-Meier estimator, the log-rank test, and the Cox Proportional Hazards model.
 
Participants will learn how to program in Python to develop software that can analyze and model time-to-event data using the Cox Proportional Hazards model. They will also learn how to handle censored data and how to perform sensitivity analysis to assess the robustness of the model.

By the end of the course, participants will have a deep understanding of survival analysis and the Cox Proportional Hazards model, and be equipped with the skills necessary to develop software programs that can effectively analyze and model time-to-event data in clinical trials.

Efficacy Signal Detection application
Our Python programming course includes an efficacy detection program that covers Simon’s Two Stage Design and Fleming’s Two Stage Design. These are popular methods for assessing the efficacy of a treatment in Phase II clinical trials, where a small group of patients are enrolled in the first stage, and the study continues to the second stage only if a certain level of efficacy is observed.
 
Participants will learn how to program in Python to develop software that can implement Simon’s Two Stage Design and Fleming’s Two Stage Design. They will learn how to calculate the necessary sample size, how to determine the stopping rules, and how to analyze the data using Bayesian methods.
By the end of the course, participants will have a deep understanding of Simon’s Two Stage Design and Fleming’s Two Stage Design, and be equipped with the skills necessary to develop software programs that can effectively assess the efficacy of a treatment in Phase II clinical trials.
RECIST v1.1 software application
Our RECIST v1.1 Python program is designed to generate efficacy endpoints based on raw tumor eCRF data sets. The program is specifically tailored to the clinical trials industry and adheres to the Response Evaluation Criteria in Solid Tumors (RECIST) guidelines.
 
Using the program, raw tumor data sets are transformed into meaningful efficacy endpoints, allowing for more accurate and efficient analysis of clinical trial results. The program utilizes Python programming language and is designed to be user-friendly, even for those without extensive programming experience.
With the RECIST v1.1 Python program, clinical trials can be conducted with greater precision, and the results can be analyzed with greater accuracy. This program is an essential tool for any clinical trial in the pharmaceutical or biotech industries, and we are proud to offer it as part of our comprehensive Python programming course.
After you have purchased the course, you will receive an email from us containing the NDA agreement that you will need to sign before gaining access to the course materials.
3 PACKAGES

Our Clinical Biostats Course Comes With 3 Different Packages. Choose The Best One For You!

$3000

BRONZE PACKAGE

$7500

SILVER PACKAGE

$10000

GOLD PACKAGE

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Users Reviews:
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Users Reviews:
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