Research Site
Baltimore, Maryland, 21225, United States
NCT Number: NCT04488016
This study will be a 2-part, open-label, single-center relative bioavailability, PPI effect, food-effect and particle size effect randomized crossover study of acalabrutinib tablets in healthy subjects (males or females). The study will be divided in 2 study parts; following a review of the safety and Pharmacokinetics (PK) data from Part 1, the study is planned to be continued with Part 2.
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Notify Me18 year–55 year
All sexes
Interventional
Phase 1
Baltimore, Maryland, 21225, United States
The study will be divided in 2 study parts; Part 1 of this study will be an open-label, 3-treatment-period, 4-treatment, single-center relative bioavailability, PPI effect, and food-effect randomized crossover study of a new acalabrutinib tablet in healthy subjects (males or females).
The relative bioavailability part of Study Part 1 is designed to investigate the PK of the acalabrutinib tablet compared with the PK of acalabrutinib capsule, when administered as a single dose with water under the fasted condition (>10 hours). The PPI effect part of Study Part 1 is designed to compare the PK of acalabrutinib tablet with or without coadministration of the PPI rabeprazole. The food-effect part of Study Part 1 is designed to compare the PK of acalabrutinib tablet under fed and fasted conditions. For each subject, a SmartPill will be administered with 120 mL of still water followed immediately by a single oral dose of acalabrutinib tablet (Treatment B, C or D) or acalabrutinib capsule (Treatment A) administered with 120 mL of still water.
Study Part 1 will comprise:
A decision to continue with Study Part 2 will be made following a review of the preliminary data for relative bioavailability (acalabrutinib tablet versus acalabrutinib capsule), food effect, PPI effect, and safety observed in Part 1.
Part 2 of this study will be an open-label, 4-treatment-period, 4-treatment, single-center relative bioavailability, randomized crossover study to determine the effect of particle size on the PK of a single dose of acalabrutinib tablet in healthy subjects (males or females).
This relative bioavailability study is designed to investigate the PK of acalabrutinib tablets with various drug substance particle size distributions and the PK of acalabrutinib solution at a single oral dose of 100 mg under the fasted condition (>10 hours).
Study Part 2 will comprise:
Healthy volunteers accepted: Yes
Only the study team can determine whether someone qualifies for participation.
Inclusion criteria
Exclusion criteria
> Upper limit of normal (ULN). (2) Hemoglobin < ULN.
The period of exclusion begins 90 days after the final dose or 30 days after the last visitwhichever is the longest.
Subject has any of the following contraindications for the SmartPill:
Subjects will receive 100 mg acalabrutinib capsule, fasted state;
Subjects will receive 100 mg acalabrutinib tablet (Variant 1), fasted state
Subjects will receive 100 mg acalabrutinib tablet (Variant 1), fed state
Subjects will receive Rabeprazole 20 mg QD (fasted) at 2 hours before administration of 100 mg acalabrutinib tablet (Variant 1) and following prior administration of rabeprazole 20 mg Twice per day (BID) (with meals) on Days -3, -2 and -1.
Subjects will receive 100 mg acalabrutinib tablet (Variant 1), fasted state
Subjects will receive 100 mg acalabrutinib tablet (Variant 2), fasted state
Subjects will receive 100 mg acalabrutinib tablet (Variant 3), fasted state
Subjects will receive 100 mg acalabrutinib solution, (Variant 4), fasted state
Time frame: Day 1 and Day 2
Part 1: To assess the relative bioavailability of the acalabrutinib tablet compared with acalabrutinib capsules in fasted state.
Part 2: To assess the impact of drug substance particle size on the bioavailability of acalabrutinib tablets.
Time frame: Day 1 and Day 2
Part 1: To assess the relative bioavailability of the acalabrutinib tablet compared with acalabrutinib capsules in fasted state.
Part 2: To assess the impact of drug substance particle size on the bioavailability of acalabrutinib tablets.
Time frame: Day 1 and Day 2
Part 1: To assess the relative bioavailability of the acalabrutinib tablet compared with acalabrutinib capsules in fasted state.
Part 2: To assess the impact of drug substance particle size on the bioavailability of acalabrutinib tablets.
Time frame: Day 1 and Day 2
Part 1: To assess the ACP-5862 PK profile of the acalabrutinib tablet compared with acalabrutinib capsule in fasted state.
Part 2: To assess the impact of drug substance particle size on the ACP-5862 PK profile of acalabrutinib tablets.
Time frame: Day 1 and Day 2
Part 1: To assess the ACP-5862 PK profile of the acalabrutinib tablet compared with acalabrutinib capsule in fasted state.
Part 2: To assess the impact of drug substance particle size on the ACP-5862 PK profile of acalabrutinib tablets.
Time frame: Day 1 and Day 2
Part 1: To assess the ACP-5862 PK profile of the acalabrutinib tablet compared with acalabrutinib capsule in fasted state.
Part 2: To assess the impact of drug substance particle size on the ACP-5862 PK profile of acalabrutinib tablets.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: Day 1 and Day 2
Part 1: To evaluate the effects of proton pump inhibitor rabeprazole on acalabrutinib and its metabolite (ACP-5862) PK profiles obtained after dosing the acalabrutinib tablet; To evaluate the effect of food on acalabrutinib and its metabolite (ACP-5862) PK obtained after dosing the acalabrutinib tablet.
Part 2: To compare PK of acalabrutinib tablet versus acalabrutinib oral solution in healthy subjects.
Time frame: From Screening to follow-up visit (7 to 10 days after last dose)
Number of subjects reporting at least one event and number of events where appropriate
Time frame: At screening (Day -28), Day -1, and Day 2
Abnormal values in systolic and diastolic blood pressure.
Time frame: At screening (Day -28), Day -1, and Day 2
Abnormal values in pulse rate.
Time frame: At screening (Day -28), Day -1, and Day 2
Abnormal values in respiratory rate.
Time frame: At screening (Day -28), Day -1, and Day 2
Abnormal values of body temperature.
Time frame: At screening (Day -28), Day -1, and Day 2
Prolongation of the QTc interval.
Time frame: At screening (Day -28), Day -1, and Day 2
Abnormal values in physical examination
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
To assess white blood cell count and red blood cell count.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
To assess abnormal serum level of sodium and potassium.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of hemoglobin
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of hematocrit.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of MCV
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of MCH
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of MCHC
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: bilirubin.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: protein in urine. Microscopy (if positive for protein): Casts (Cellular, Granular, Hyaline).
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of glucose (fasting)
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of CRP.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of BUN
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of TSH
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
Abnormal values of T4
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
To assess neutrophils absolute count, lymphocytes absolute count, monocytes absolute count, eosinophils absolute count, basophils absolute count, platelets, and reticulocytes absolute count.
Time frame: From Screening to follow-up visit (7 to 10 days after last dose)
Percentage of subjects reporting at least one event and number of events where appropriate
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
To assess abnormal serum level of calcium.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
To assess abnormal serum level of phosphate.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: alkaline phosphatase (ALP), alanine aminotransferase (ALT), and aspartate aminotransferase (AST).
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: creatinine.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: albumin.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: cystatin C.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: gamma glutamyl transpeptidase.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: urea and uric acid.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: glucose in urine.
Time frame: At screening (Day -28), Day-1, Day 1, Day 2, and Follow-up visit (7-10 days after last dose)
The laboratory variables to be measured are: blood in urine. Microscopy (if positive blood): RBC, WBC.
Time frame: Day 1
The taste of the acalabrutinib oral solution (Treatment D) will be assessed by a taste and smell questionnaire after the administration of the IMP. Subjects will be asked to complete the questionnaire themselves which will rate questions on the taste of the IMP (sweet, salty, sour, bitter, metallic, hot/spicy, overall taste of the medicine) from 0 to 10 (where 0 is extremely bad and 10 is extremely nice).
Time frame: Day 1
The smell of the acalabrutinib oral solution (Treatment D) will be assessed by a taste and smell questionnaire after the administration of the IMP. Subjects will be asked to complete the questionnaire themselves which will rate questions on the smell of the IMP (extremely bad to extremely nice, whether subjects would take it again) of the medicine) from 0 to 10 (where 0 is extremely bad and 10 is extremely nice).
AstraZeneca
Industry
A 2-Part, Phase I, Open-label, Single-Dose, Sequential Randomized Crossover Study of New Acalabrutinib Tablet in Healthy Subjects to Evaluate Relative Bioavailability, Proton Pump Inhibitor (Rabeprazole) Effect, Food Effect and Particle Size Effect
OpenTrials presents study information sourced from ClinicalTrials.gov. The official registry record should be consulted for the latest information.
View the official ClinicalTrials.gov record (opens in a new tab)This listing is for discovery and informational purposes only. It is not medical advice, does not guarantee that a study is recruiting, and does not determine eligibility. Contact the study team and a qualified healthcare professional when considering participation.
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