ANALYTICAL BIO-CHEMISTRY & IMMUNO-CHEMISTRY DATA MANAGEMENT & REPORTING SOFTWARE

.GLP, GALP and GMP COMPLIANCE.   FULL AUDIT TRAIL INCLUDING ENCRYPTED ELECTRONIC SIGNATURES.

 

POSTER GALLERY

 
 

ALIS-IC 2000 Quantitative Module & It's Use In Facilitating Studies Utilizing Multiple Biomarkers

Jo Marie Smolec, John W. Cornacchia and  Scott Serl
Alta Analytical Laboratory

Ike D. Tabani, Alen Chan and
Mikhail Amchislavsky
Innovative Automation

Presented at the First North American Bioanalytical Forum,
Sept. 17 - 20, 2000,  Kansas City, MO.

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Biomarkers are indicators of a biological response related to disease progression or remission. Carefully selected biomarkers can be useful in the selection of a lead compound, determining the mechanism of action of a compound, be used as a surrogate endpoint for demonstrating efficacy, or for identifying intermediate endpoints of success to decrease follow-up time with a specific treatment. Many biomarkers are in an ELISA format and can be either in the form of a kit or custom assay. The validation of these immunoassays according to GLP, final sample analysis with a panel of biomarkers, and the monitoring of assay performance requires the processing of various forms of data and multiple data points per patient or specimen.  ALIS-IC 2000 software incorporates features such as encrypted electronic signatures, complete audit trail and password protected task based access that allows us to meet several GLP compliance requirements for automated systems and satisfies the needs of these demanding studies.  The use of ALIS-IC 2000 allows bi-directional data transfer.  A sample sequence run list is generated and uploaded to StatLIA for instrument control and the results of assay are transferred back to ALIS-IC 2000 using an instrument upload module.  The assay results are then processed based on parameters defined by study, method and protocol.  Finally the data are reported using ALIS-IC 2000's Seagate Crystal Report Writer and MS-WORD 2000/VBA based application that can be customized to meet study specific requirements.  In this presentation, we will describe our approach to automating a high throughput immunoassay data processing and reporting using 
ALIS-IC 2000.

StatLIA is a trademark of Brendan Scientific Software and ALIS-IC 2000 is a trademark of Innovative Automation.

Implementing Electronic Signature Requirements in an existing LC-MS/MS Data Processing & Reporting System

Robert A. Bethem, John W. Cornacchia, Scott Serl, Shelly Weagraff and Jo Marie Smolec
Alta Analytical Laboratory

Ike D. Tabani
Innovative Automation

Presented at the 47th ASMS Conference on Mass Spectrometry and Allied Topics,
June 13 - 17, 1999,  Dallas, TX.

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Contract research organizations (CRO) operating under FDA-GLP are faced with two opposing challenges; maintaining high productivity and compliance with the evolving regulatory electronic record-keeping requirements. Over the past ten years, LCMS laboratory managers have steadily improved laboratory productivity via automation of data acquisition and reporting. The drive towards laboratory automation and compliance with electronic record keeping is converging to define a common platform necessary to achieve the paperless CRO. FDA has recently presented guidance regarding electronic record keeping requirements issued in Part 11; Electronic Records; Electronic Signatures (21 CFR 11)1,2 . The purpose of Part 11 was to address the electronic record keeping and signature requirements in "Paperless Record Systems". Some of the key requirements for regulated systems include: - Validation - Ability to Generate Accurate and Complete Copies - Archival Protection of Records - Audit Trails - System Controls - Personnel Training and Qualifications ALTA has incorporated the electronic record keeping and signature procedures into ALIS98™, an LCMS report writer3-5 that are required of regulated systems. The purpose of this presentation is to describe our approach to implementing these new features including an electronic audit trail, encrypted electronic signatures and enhanced system controls towards satisfying the FDA requirements. Much of the design considerations were based on information presented at the 1998 SQA Workshop (Alexandria, VA) as well as presentations available at the FDA web site (http://www.fda.gov). We invite discussions with others who supply FDA with equivalent data as to how they accomplish the same goal.

References 1. Electronic Records; Electronic Signatures; Final Rule (21 CFR Part 11). 2. The FDA Inspection Program. J. McCormack (FDA). Presented at the SQA Workshop Advanced QA Techniques, July 10, 1998. Alexandria, VA. 3. ALIS98 Users Manual. Innovative Automation. 1998. 4. Evaluation of the Effect of Regression Model Selection on Quantitative LC-MS/MS Data. Robert A. Bethem, John W. Cornacchia, Elaine K. Fukuda, Alen Chan and Ike D. Tabani. Presented at the 45th ASMS Conference on Mass Spectrometry and Allied Topics, 1997. 5. ALIS-DMA/DMPRA: A New LC/MS Pharmaceutical and Agrochemical Data Report Writer. Ike D. Tabani, John W. Cornacchia and Robert A. Bethem. Presented at the 44th ASMS Conference on Mass Spectrometry and Allied Topics, May 12 - 16, 1996.

Method Validation Report Generation Using MS-Word97 Automation

John W. Cornacchia, Scott Serl, Jeri. M. Willoh, Mike B. Buonarotti and Robert A. Bethem,
Alta Analytical Laboratory

Ike D. Tabani and Mikhail Amchislavsky
Innovative Automation


Presented at the 10th International Symposium on Pharmaceutical and Biomedical Analysis,
May 9 - 12, 1999
, Washington, DC.

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Method validation studies require processing of method performance experimental data and generation of custom analytical reports.   Although there is some similarity between validation plans, (contract research organization) CRO's typically see considerable variation in design due to compound and sponsor driven requirements.  In addition to differences in experimental design, method validation report formats are often dictated by sponsor (versus CRO) standard operating procedures (SOP).  These factors complicate any efforts to streamline report generation via software automation.

One approach towards providing a flexible reporting tools to study managers has been the utilization of MS Office97 automation.  The advantage of this approach is that MS Word97 is used throughout many if not all pharmaceutical companies and FDA.  Tracking and processing of method validation trial results can be handled by a MS-Access97 database and user interface constructed with MS-Visual Basic (Visual Basic  or Visual Basic for Applications).  Report data can be queried and written into a pre-designed and preformatted  MS Word97 document templates using Access97 -SQL via MS DAO (Data Access Object) library version 3.5.  Besides enabling rapid application development, report writers also benefit from using a validated significant figure subroutines to ensure consistent numerical formatting.  This poster describes the method validation report writing module developed for ALIS-98, a LC-MS/MS data management and reporting system.

Evaluation of the Effect of Regression Model Selection on Quantitative LC-MS/MS Data

Robert A. Bethem, John W. Cornacchia
Alta Analytical Laboratory

Elaine K. Fukuda
CAFT Mass Spectrometry Facility, Rutgers University, New Brunswick, NJ.

Ike D. Tabani and Alen Chan
Innovative Automation


Presented at the 45th ASMS Conference on Mass Spectrometry and Allied Topics, 1997, Palm Springs, CA

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Purpose: To evaluate the effects of regression model selection on statistical measures traditionally used to assess quantitative data set acceptability including bias of standards, r2 and QC percent recovery.

Method: LCMS/MS data from a single dose safety and pharmacokinetic study was evaluated using the LCMS Report Writer, ALIS-DMPRA 4.0. Designs details of ALIS including a description of functionalities has been presented elsewhere . The data which consisted of five analytical runs and 16 subjects were generated on a PE-Sciex API III + operating in turbo-ionspray tandem mass spectrometry mode. Standard concentrations ranged over three orders of magnitude (0.005 - 5.0 ng/mL). Calibration sets were processed using weighted, non-weighted, linear, quadratic regression and log-log quadratic regression. All regression calculations were performed using the ALIS Calibration Optimizer module and verified by Jandel's TableCurve 4.0 for Windows (Figure 1).

The coefficient of determination (r2) and the fit standard error were used to assess good-ness of fit for each calibration curve-regression model combination. In addition, the bias of the lowest calibration standards and QC samples were determined to examine the effect of curve fit on data acceptability. Subject data were processed within the ALIS Pharmacokinetic/SGI Data Analysis module to generate t 1/2 for all subjects and three PK models: zero-order, first-order and compartment independent. To compare the results across regression types, the relative percent difference was calculated using the t 1/2 from the weighted linear regression 1/x2 as a reference point.

Results: These results suggest curve fit selection should be based on a goodness of fit measure such as Standard Error (Root MSE). In this study, regression model selection had a significant effect on the bias of standards and QC samples.

Conclusion: Future work should examine procedures for outlier selection and rejection.

ALIS-DMA/DMPRA: A New LC/MS Pharmaceutical and Agrochemical Data Report Writer

Ike D. Tabani
Innovative Automation

John W. Cornacchia and Robert A. Bethem.
Alta Analytical Laboratory

Presented at the 44th ASMS Conference on Mass Spectrometry and Allied Topics,
May 12 - 16, 1996,  Portland OR.

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The use of high speed automated analytical procedures such as LC/MS/MS in support of FDA/EPA data submissions has markedly increased over the past five years. Instrument through-put can easily exceed several hundred result records per analytical run creating the need for software capable of performing real-time post-acquisition data processing and report generation. LCMS based pharmacokinetic reports and field dissipation reports are typically method or protocol specific requiring a high degree of flexibility in the design of the report writer software. ALIS, a windows based LCMS report writer, allows the creation of study specific sample log-in screens, electronic benchsheets, and report forms customizable through an extensive set of user utilities. The ALIS report writer currently supports automated data transfer from two instrument platforms: the Finnigan XSQ 700/7000 and the Sciex API 3/300.

ALIS employs two template builders to facilitate the collection and processing of data based on study specific requirements. Method templates are created that dictate sample preparation and instrument operation parameters. Post-acquisition quantitation options are also assigned to the method template including the type of calibration curve fitting, sample response types and any result correction factors that will be applied to the data. The use of method templates greatly reduces laboratory errors due to method deviations and promotes the generation of a uniform study database.

To accommodate as many study types as possible, the ALIS user interface allows the alteration of the underlying sample descriptor database structure by the user. Allowing the user to create study specific sample log-in templates has enabled a high degree of flexibility in the back-end grouping and sorting of analytical results. Post processed data can be stored in MS Access, Oracle or any RDBMS capable of supporting ODBC. In the case of MS Office based ALIS, results data sets can be queried from Access using SQL, stored query definitions or through thin the above third party report writers.

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