Outcome
Type |
Measure |
Description |
Time frame |
Safety issue |
Other |
Explore Persistence of Genetically Modified T cells in vivo. |
Characteristics of Persistence of Genetically Modified T cells in vivo will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Phenotype of Genetically Modified T cells in vivo. |
Characteristics of phenotype of genetically modified T cells in vivo will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of CA-125 Tumor Immune Biomarker Before TCRT-ESO-A2 Infusion |
The presence of CA-125 tumor biomarker before TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of CA-125 Tumor Immune Biomarker after TCRT-ESO-A2 Infusion |
The presence of CA-125 Tumor Biomarker After TCRT-ESO-A2 Infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of CEA Tumor Immune Biomarker Before TCRT-ESO-A2 Infusion |
The presence of CEA tumor immune biomarker before TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of CEA Tumor Immune Biomarker After TCRT-ESO-A2 infusion |
The presence of CEA tumor immune biomarker after TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of PSA Tumor Immune Biomarker Before TCRT-ESO-A2 Infusion |
The presence of PSA tumor biomarker before TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of PSA Tumor Immune Biomarker After TCRT-ESO-A2 Infusion |
The presence of PSA tumor biomarker after TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Distribution of PSA Tumor immune Biomarker After TCRT-ESO-A2 Infusion |
The distribution of PSA tumor biomarker after TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Cytokine IFN-? Presence Before TCRT-ESO-A2 Infusion |
The presence of systemic cytokine IFN-? before TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Cytokine IFN-? Presence After TCRT-ESO-A2 Infusion |
The presence of systemic cytokine IFN-? after TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of Targeted Antigen NY-ESO-1, Before TCRT-ESO-A2 Infusion |
The presence of targeted antigen NY-ESO-1 before TCRT-ESO-A2 infusion Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of Targeted Antigen NY-ESO-1 After TCRT-ESO-A2 Infusion |
Evaluate the presence and distribution of and targeted antigen NY-ESO-1 after TCRT-ESO-A2 infusion |
Baseline to disease progression averaging one year |
|
Other |
Explore Distribution of Targeted Antigen NY-ESO-1 After TCRT-ESO-A2 Infusion |
Evaluate the distribution of targeted antigen NY-ESO-1 after before TCRT-ESO-A2 infusion will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of PSA Tumor Immune Biomarker |
The presence of PSA tumor biomarker will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of CEA Tumor Immune Biomarker |
The presence of CEA tumor biomarker will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
:Explore Persistence of Genetically Modified T cells in vivo. |
Characteristics of persistence of genetically modified T cells in vivo will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Evaluate Presence of Cytokine IFN-? MTD Expansion: Evaluate cytokine IFN-? before and after TCRT-ESO-A2 infusion |
The presence of systemic cytokine IFN-y will be assessed by multiple linear regression |
Baseline to disease progression averaging one year |
|
Other |
Explore Evaluate Cytokine IFN-? Before TCRT-ESO-A2 Infusion MTD Expansion: Evaluate cytokine IFN-? before and after TCRT-ESO-A2 infusion |
Evaluate the presence of systemic cytokine IFN-y before TCRT-ESO-A2 infusion will be assessed by multiple linear regression |
Baseline to disease progression averaging one year |
|
Other |
Explore Presence of Targeted Antigen NY-ESO-1 Before TCRT-ESO-A2 Infusion |
Evaluate the presence of targeted antigen NY-ESO-1, before TCRT-ESO-A2 infusion will be assessed by multiple linear regression |
Baseline to disease progression averaging one year |
|
Other |
Explore Perform NY-ESO-1 Immunohistochemistry Assay Using a Four-point Semi-quantitative Scale (low to high): 0, 1+, 2+, 3+ With High Inferring a Better Outcome |
Evaluate the subject tumor to determine cut-off high and low NY ESO - 1 expression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Association Between Maximum TCRT ESO A2 Concentration time and Systemic Cytokine IFN-? Level |
The association between maximum TCRT ESO A2 concentration time and systemic cytokine IFN-? level will be assessed by multiple linear regression. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Association Between Maximum TCRT ESO A2 Concentration time and Systemic Cytokine IL-6 Level |
The association between maximum TCRT ESO A2 concentration time and systemic cytokine IL-6 level will be assessed by multiple linear regression. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Association Between Maximum TCRT ESO A2 Concentration time and Systemic Cytokine TNFa Level |
The association between maximum TCRT ESO A2 concentration time and systemic cytokine IFN-? level will be assessed by multiple linear regression. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Association Between Maximum Dose Concentration Time and Disease Appropriate Circulating Tumor Marker CA-125 |
The association between pharmacokinetic maximum dose concentration time and pharmacodynamic disease appropriate circulating tumor marker CA-125 will be assessed by multiple linear regression. |
Day 28 |
|
Other |
Explore Association Between Pharmacokinetic Maximum Dose Concentration Time and Disease Appropriate Circulating Tumor Marker CEA |
The association between pharmacokinetic maximum dose concentration time and pharmacodynamic disease appropriate circulating tumor marker CEA will be assessed by multiple linear regression. |
Day 28 |
|
Other |
Explore Association Between Pharmacokinetic Maximum Dose Concentration and disease Appropriate Circulating Tumor Marker PSA |
The association between pharmacokinetic maximum dose concentration time and pharmacodynamic circulating tumor marker PSA will be assessed by multiple linear regression. |
Day 28 |
|
Other |
Explore Association Between Pharmacokinetic Maximum TCRT ESO A2 Dose Concentration Time and Pharmacodynamic Adverse Events as Identified by CTCAE Version 5. |
The association between pharmacokinetic parameters and pharmacodynamic adverse event incidence will be assessed by rank correlation. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Association Between Pharmacokinetic Maximum Dose Concentration time and Pharmacodynamic Adverse Event Incidence. |
Explore association between pharmacokinetic maximum dose concentration time and pharmacodynamic adverse event incidence. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Association Between Pharmacokinetic Maximum Dose Concentration and Area Under the Curve zero to infinity |
The association between maximum tolerated dose and area under the curve zero to infinity will be assessed by multiple linear regression. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Pharmacokinetic Relationship with Tlast of CD3-positive/tetramer-positive T cells |
The association between pharmacokinetic parameters and [variable] will be assessed by multiple linear regression. |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year. |
|
Other |
Explore Pharmacokinetic Relationship with Phenotype of Genetically Modified T cells in vivo |
The association between pharmacokinetic parameters and phenotype of genetically modified T cells in vivo will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Other |
Explore Pharmacokinetic Relationship with Tumor Objective Response Rate by RECIST 1.1 |
The association between pharmacokinetic parameters and objective response rate will be assessed by multiple linear regression. |
3 months |
|
Other |
Explore Pharmacokinetic Relationship with Progression-Free Survival by RECIST 1.1 |
The association between pharmacokinetic parameters and progression-free survival will be assessed by multiple linear regression. |
3 months |
|
Other |
Explore Pharmacokinetic Relationship With Disease Control Rate RECIST 1.1 |
The association between pharmacokinetic parameters and disease control rate will be assessed by multiple linear regression |
3-months |
|
Other |
Explore Pharmacokinetic Relationship With Overall Survival RECIST 1.1 |
The association between pharmacokinetic parameters and overall survival will be assessed by multiple linear regression. |
Baseline to disease progression averaging one year |
|
Primary |
Dose Escalation: Evaluate up to Eighteen Subjects With Tumors Expressing TCRT-ESO-A1 and Having Dose Limiting Toxicity Adverse Events as Assessed by CTCAE-Version 5 |
TCRT-ESO-A2 maximum tolerated dose as assessed by the occurrence of dose-limiting toxicity adverse events at least possibility related to TCRT-ESO - A2 in two of six subjects who received TCRT-ESO-A2 |
Day 28 |
|
Secondary |
Dose Escalation: Tumor Response for Partial Response as Assessed by RECIST 1.1. |
Evaluate tumor response for partial response response as assessed by RECIST 1.1, standardized assessment with complete response being the highest and disease progression being the lowest outcome. |
Day 28 and every 3 months until disease progression averaging one year |
|
Secondary |
Dose Escalation: Tumor Response Stable Disease as Assessed by RECIST 1.1. |
Evaluate tumor response for stable disease response response as assessed by RECIST 1.1, a standardized assessment with complete response being the highest and disease progression being the lowest outcome. |
Day 28 and every 3 months until disease progression averaging one year |
|
Secondary |
Dose Escalation: Tumor Response Disease Progression as Assessed by RECIST 1.1. |
Evaluate tumor response for disease progression response as assessed by RECIST 1.1, a standardized assessment with complete response being the highest and disease progression being the lowest outcome. |
Day 28 and every 3 months until disease progression averaging one year |
|
Secondary |
Dose Escalation: Tumor Response Overall Survival as Assessed by RECIST 1.1. |
Evaluate tumor response for overall survival as assessed by RECIST 1.1, a standardized assessment with complete response being the highest and disease progression being the lowest outcome. |
Day 28 and every 3 months until disease progression averaging one year |
|
Secondary |
Dose Escalation: Tumor Response Progression-Free Survival as Assessed by RECIST 1.1. |
Evaluate tumor response for disease progression-free survival as assessed by RECIST 1.1, a standardized assessment with complete response being the highest and disease progression being the lowest outcome. |
Day 28 and every 3 months until disease progression averaging one year |
|
Secondary |
Dose Escalation: Persistence of Genetically Modified T Cells in Vivo and T Cell Subpopulations |
Evaluate the persistence of genetically modified T cells in vivo as assessed by evidence of an abundance of T cell subpopulations in circulation |
Day 28 to disease progression averaging one year |
|
Secondary |
Dose Escalation: Persistence of Genetically Modified T Cells in Vivo and Antigen Specific CD8 + Cytotoxic T lymphocytes |
Evaluate persistence of genetically modified T cells in vivo and antigen specific CD8 + cytotoxic T lymphocytes in circulation |
Day 28 to disease progression averaging one year |
|
Secondary |
Dose Escalation: Phenotype of Genetically Modified T Cells in Vivo and Functional Characteristics |
Evaluate the phenotype of genetically modified T cells in vivo as assessed by functional characteristics |
Day 28 to disease progression averaging one year |
|
Secondary |
Dose Escalation: Monitor Presence of Potentially Replication-Competent Lentivirus before TCRT ESO A2 Infusion |
Monitor presence of potentially Replication-Competent Lentivirus before TCRT 001 ESO A2 infusion as assessed by qualitative PCR assay to detect and measure gene coding copies for the VSV- G Envelope Protein |
Days - 7 |
|
Secondary |
Dose Escalation: Monitor Presence of Potentially Replication-Competent Lentivirus After TCRT ESO A2 Infusion |
Monitor presence of potentially Replication-Competent Lentivirus after TCRT 001 ESO A2 infusion as assessed by qualitative PCR assay to detect and measure gene coding copies for the VSV- G Envelope Protein |
Days 90 and 270 |
|
Secondary |
Maximum Tolerated Dose Expansion: Overall Survival Assessment |
Evaluate overall survival as assessed by RECIST 1.1 |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Objective Response Rate Assessment |
Evaluate objective response rate as assessed by RECIST 1.1 |
3 months |
|
Secondary |
Maximum Tolerated Dose Expansion: Progression-free Survival Assessment |
Evaluate progression-free survival 3-months as assessed by RECIST 1.1 every 3 months |
3 months |
|
Secondary |
Maximum Tolerated Dose Expansion: Disease Control Rate Assessment |
Evaluate disease control rate at 3-months as assessed by RECIST 1.1 |
3 months |
|
Secondary |
Maximum Tolerated Dose Expansion: TCRT-ESO-A2 Maximum Concentration Pharmacokinetic Characteristics |
Evaluate TCRT-ESO-A2 as assessed by CD3-Positive/Tetramer-Positive T Cells maximum concentration |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: TCRT-ESO-A2 Maximum Concentration pharmacokinetic characteristics |
Evaluate TCRT-ESO-A2 as assessed by CD3-Positive/Tetramer-Positive T Cells Time to maximum concentration |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: TCRT-ESO-A2 Half-Life pharmacokinetic characteristic |
Evaluate TCRT-ESO-A2 as assessed by CD3-positive/tetramer-positive T Cells Half-Life |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: TCRT-ESO-A2 time last pharmacokinetic characteristic |
Evaluate TCRT-ESO-A2 as assessed by CD3-positive/tetramer-positive T Cells |
Day -7, 1,2,3, 4, 5, 8,15, 28, 60, 90, 180, 270 and every 3 months until disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Evaluate Tumor for Complete Response as Assessed by RECIST 1.1. |
Evaluate tumor for complete response as assessed by RECIST 1.1, a standardized assessment with complete response the highest and disease progression the lowest outcome assessment |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Evaluate Tumor for Partial Response as Assessed by RECIST 1.1. |
Evaluate tumor for partial response as assessed by RECIST 1.1, a standardized assessment with complete response the highest and disease progression the lowest outcome assessment |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Evaluate Tumor for Stable Disease as Assessed by RECIST 1.1. |
Evaluate tumor for stable disease response as assessed by RECIST 1.1, a standardized assessment with complete response the highest and disease progression the lowest outcome assessment |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Evaluate Tumor for Disease Progression as Assessed by RECIST 1.1. |
Evaluate tumor for disease progression as assessed by RECIST 1.1, a standardized assessment with complete response the highest and disease progression the lowest outcome assessment |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Evaluate Tumor for Progression-Free Survival as Assessed by RECIST 1.1. |
Evaluate tumor for progression-free survival as assessed by RECIST 1.1, a standardized assessment with complete response the highest and disease progression the lowest outcome assessment |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Evaluate Tumor for Overall Survival as Assessed by RECIST 1.1. |
Evaluate tumor for overall survival as assessed by RECIST 1.1, a standardized assessment with complete response the highest and disease progression the lowest outcome assessment |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Persistence of Genetically Modified T Cells in Vivo as Assessed by Functional Characteristics and Persistence in the Circulation |
Evidence of abundance of T cell subpopulations, antigen specific CD8+ cytotoxic T lymphocytes , functional characteristics and persistence in the circulation |
Baseline to disease progression averaging one year |
|
Secondary |
Maximum Tolerated Dose Expansion: Monitor Presence of Potentially Replication-Competent Lentivirus (RCL) before TCRT ESO A2 Infusion |
Monitor presence of potentially Replication-Competent Lentivirus before TCRT 001 ESO A2 infusion as assessed by qualitative PCR assay to detect and measure gene coding copies for the VSV- G Envelope Protein |
Day -7 |
|
Secondary |
Maximum Tolerated Dose Expansion: Monitor Presence of Potentially Replication-Competent Lentivirus (RCL) after TCRT ESO A2 Infusion |
Monitor presence of potentially Replication-Competent Lentivirus after TCRT 001 ESO A2 infusion as assessed by qualitative PCR assay to detect and measure gene coding copies for the VSV- G Envelope Protein |
Days 90, 270 |
|
Secondary |
Long Term Follow Up Period: Monitor VSV-G DNA qualitative PCR |
Monitor presence of potentially Replication-Competent Lentivirus as assessed by qualitative PCR assay to detect and measure gene coding copies for the VSV- G Envelope Protein |
Progression of disease up to 15 years |
|
Secondary |
Long Term Follow Up Period: Monitor New Incidence of Potentially Product-Related Infection |
Monitor new incidence of potentially product-related infection as assessed by annual or biannual long term follow-up interview |
Progression of disease up to 15 years |
|
Secondary |
Long Term Follow Up Period: Monitor New Incidence of malignancy |
Monitor incidence of new malignancy(ies) as reported in annual or biannual long term follow-up interview |
Progression of disease up to 15 years |
|