Approval Probability
TA Base Rate
Adjusted LOA
ML Risk
Human Plasma-Derived Fibrinogen · 1 trial · 1 indication
AUC(0-14days) was calculated by a combination of linear and logarithmic trapezoidal methods and expressed in the unit of concentration × time. The linear trapezoidal method used for all incremental trapezoids arising from increasing concentrations and the logarithmic trapezoidal method used for those arising from decreasing concentrations. Plasma fibrinogen activity determined by the Clauss method in the central laboratory of the study. Pharmacokinetic (PK) parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
AUC(0-14days) was calculated by a combination of linear and logarithmic trapezoidal methods and expressed in the unit of concentration × time. The linear trapezoidal method was used for all incremental trapezoids arising from increasing concentrations and the logarithmic trapezoidal method was used for those arising from decreasing concentrations. Plasma fibrinogen activity was determined by the ELISA method in the central laboratory of the study. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
AUC0-infinity was calculated as AUC0-t + Ct/Kel, where (AUC0-t) was the area under the concentration versus (vs) time curve from time 0 to the time of last quantifiable concentration (Ct), and Kel was the apparent terminal first-order elimination rate constant, determined by linear regression analysis of the natural log-linear segment of the plasma concentration-time curve, expressed in time\^-1 units (1/h). Plasma fibrinogen activity was determined by the Clauss method in the central laboratory of the study. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
AUC0-infinity was calculated as AUC0-t + Ct/Kel, where (AUC0-t) was the area under the concentration vs. time curve from time 0 to the time of last quantifiable concentration (Ct), and Kel was the apparent terminal first-order elimination rate constant, determined by linear regression analysis of the natural log-linear segment of the plasma concentration-time curve, expressed in time\^-1 units (1/h). Plasma fibrinogen activity was determined by the ELISA method in the central laboratory of the study. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Cmax was obtained directly from the experimental data without interpolation. Plasma fibrinogen activity was determined by the Clauss method in the central laboratory of the study. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Cmax was obtained directly from directly from the experimental data without interpolation. Plasma fibrinogen activity was determined by the ELISA method in the central laboratory of the study. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Tmax was obtained directly from the experimental data without interpolation, expressed in time units (hour). Plasma fibrinogen activity was determined by the Clauss method in the central laboratory of the study.
Tmax was obtained directly from the experimental data without interpolation, expressed in time units (hour). Plasma fibrinogen activity was determined by the ELISA method in the central laboratory of the study.
t1/2 was the time measured for the concentration to decrease by one half. t1/2 calculated by natural log 2 divided by Kel and expressed in time units (hour). PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
t1/2 was the time measured for the concentration to decrease by one half. t1/2 calculated by natural log 2 divided by Kel and expressed in time units (hour). PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
MRT was calculated by AUC0-inf/AUC0-inf - (T1/2), where AUC0-inf was the area under the first moment of the concentration vs. time curve from time 0 extrapolated to infinite time and T1/2 was the apparent terminal half-life of infusion. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
MRT was calculated by AUC0-inf/AUC0-inf - (T1/2), where AUC0-inf was the area under the first moment of the concentration vs. time curve from time 0 extrapolated to infinite time and T1/2 was the apparent terminal half life of infusion.PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Volume of distribution was defined as the theoretical volume in which the total amount of drug would need to be uniformly distributed to produce the desired plasma concentration of a drug. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Volume of distribution was defined as the theoretical volume in which the total amount of drug would need to be uniformly distributed to produce the desired plasma concentration of a drug. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Clearance of a drug was a measure of the rate at which a drug was metabolized or eliminated by normal biological processes. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Clearance of a drug was a measure of the rate at which a drug was metabolized or eliminated by normal biological processes. PK parameters adjusted for baseline fibrinogen level calculated by deducting the pre-infusion fibrinogen concentration from the post-infusion concentrations before the calculation.
Incremental IVR was calculated for fibrinogen levels from the peak level recorded within and included the first four hours after the end of infusion and reported as milligram per deciliter per milligram per kilogram \[mg/dL\]/\[mg/kg\]. IVR was determined for every participants using the following formula: (\[FIB max (mg/dL)\] - \[FIB pre-infusion (mg/dL)\])/FIB administered (mg)/Body weight (kg), where the FIB max is the peak FIB activity within the first four hours after the end of infusion and FIB pre-infusion was the baseline FIB activity level of the participant. FIB administered was the actual administered dose calculated using the actual volume administered to the participant, the declared potency, and the true concentration of FIB in the batch used.
Incremental IVR was calculated for fibrinogen levels from the peak level recorded within and included the first four hours after the end of infusion and reported as milligram per deciliter per milligram per kilogram \[mg/dL\]/\[mg/kg\]. IVR was determined for every participants using the following formula: (\[FIB max (mg/dL)\] - \[FIB pre-infusion (mg/dL)\])/FIB administered (mg)/Body weight (kg), where the FIB max is the peak FIB activity within the first four hours after the end of infusion and FIB pre-infusion was the baseline FIB activity level of the participants. FIB administered was the actual administered dose calculated using the actual volume administered to the participants, the declared potency, and the true concentration of FIB in the batch used.
MCF was as a functional parameter of blood's ability to coagulate, provides an indirect measure of hemostatic efficacy of replacement treatment with fibrinogen concentrates in participants with fibrinogen deficiency. Rotational thromboelastography (ROTEM) was performed on frozen plasma samples by the central laboratory to measure MCF. Undetectable MCF values were set to 0.
| Arm | Type | Description |
|---|---|---|
| Single | EXPERIMENTAL | Human Plasma-Derived Fibrinogen Concentrate Grifols (FIB Grifols) |
| Name | Type | Description |
|---|---|---|
| Human Plasma-Derived Fibrinogen Concentrate | BIOLOGICAL | A sterile freeze-dried fibrinogen concentrate filled in vials containing 1 g of FIB Grifols. FIB Grifols contains 20 mg/ml of active substance fibrinogen when reconstituted. |
Inclusion Criteria: 1. Male or female participants less than 70 years old. 2. Sign the written Informed Consent Form (ICF), or the subjects parent or legal guardian signs the ICF where applicable, and the subjects. Authorization Form where applicable. Pediatric subjects, as defined by local regulat...
Human Plasma-Derived Fibrinogen is used for congenital afibrinogenemia, a rare bleeding disorder in which the blood cannot clot properly due to a lack of fibrinogen. It is being developed as a replacement therapy to provide the missing fibrinogen and help restore normal blood clotting in affected patients.
Human Plasma-Derived Fibrinogen is being developed by Grifols, S.A., a Spanish pharmaceutical company traded on the NASDAQ under the ticker symbol GRFS. Grifols specializes in plasma-derived medicines and is conducting clinical research on this product for the treatment of congenital afibrinogenemia.
Human Plasma-Derived Fibrinogen is in Phase 1 clinical development. It is an investigational product and has not yet been approved by regulatory authorities. The Phase 1 trial has been completed, and the product remains under investigation for congenital afibrinogenemia.
Human Plasma-Derived Fibrinogen has one completed clinical trial, NCT02281500, titled "Pharmacokinetics, Efficacy, and Safety of Human Plasma-Derived Fibrinogen (FIB Grifols) in Participants With Congenital Afibrinogenemia." This Phase 1 study enrolled 24 participants across the United States, India, Italy, and Lebanon.
Yes, Human Plasma-Derived Fibrinogen is also known as FIB Grifols. The clinical trial NCT02281500 refers to the product as "Human Plasma-Derived Fibrinogen (FIB Grifols)," indicating that FIB Grifols is the brand name or alternative designation for this investigational therapy.