Dartmouth-Hitchcock Medical Center in Lebanon, NH
Lebanon, New Hampshire, 03766, United States
NCT Number: NCT03348956
This pilot study will attempt to establish the feasibility of using tissue oxygen measurements and the protein, neurofilament light chain (NF-L), as potential biomarkers for chemotherapy-induced peripheral neuropathy (CIPN). Thirty (30) subjects scheduled to begin taxane-based chemotherapy for breast tumor will be assigned to receive an India ink injection under the skin of the foot. The ink will be used to make up to five (5) 45-minute "electron paramagnetic resonance" (EPR) oximetry readings prior to the start of chemotherapy. Subjects will undergo electrophysiologic assessments including nerve conduction studies, in addition to a neurological examination prior to the start of chemotherapy. Subjects will have the EPR oximetry readings, electrophysiologic tests, and neurological examination two more times: at the halfway point of their chemotherapy treatment -- or at the onset of CIPN symptoms -- and again after chemotherapy has been completed. Subjects will also have blood drawn prior to beginning taxane-based chemotherapy, prior to every scheduled chemotherapy treatment, and after completion of chemotherapy in order to test for neurofilament light chain (NF-L).
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Notify Me18 year and older
All sexes
Interventional
Not applicable
Lebanon, New Hampshire, 03766, United States
Therapy with chemotherapeutic drugs can make a huge impact on survival and quality of life in patients with cancer. Advances in medical monitoring and the effectiveness of these therapies have significantly improved outcomes so that a definitive cure or long-term survival is more likely. Cancer survivors are used to dealing with serious side effects of their therapy; however, some of the side effects from the chemotherapy drugs persist even after the medication course is completed. The impact of these sequelae on quality of survival is increasingly being appreciated and forming an important new direction of cancer care. One of the more severe side effects of chemotherapy is peripheral neurotoxicity resulting in neuropathy or neuronopathy.
Chemotherapy-induced peripheral neurotoxicity (CIPN) is one of the least predictable and most prolonged sequelae with effects ranging from pain, numbness and tingling to diffuse weakness sometimes to the extent of paralysis. It results from damage or alteration in function of peripheral nerves usually, but not always, in a length-dependent manner. An indirect impact of CIPN includes difficulties with balance and susceptibility to falls. There are currently no therapies that have been proven to prevent CIPN. Similarly, there are few medications that are known to be effective in the reversing CIPN once it develops or effectively treating symptoms of CIPN. Currently, diagnosis is based mainly on clinical examination and electrophysiological testing to monitor CIPN; identification of candidate biomarkers through which disease onset can be identified at an earlier stage and which reflect presumed pathophysiologic mechanisms is of paramount importance.
There are different theories of CIPN pathogenesis. One of the leading hypotheses relates to mitochondrial dysfunction and oxidative stress affecting both the dorsal root ganglia neurons and supportive endothelial cells of the vasa nervorum. Here at Dartmouth, a specialized technique has been developed that allows the non-invasive assessment of tissue oxygen in and around peripheral nerve. This technique, called "electron paramagnetic resonance" (EPR) oximetry, allows for repeated measurements over time that can be correlated with other metrics of peripheral nerve function. Given its relevance to an important pathophysiologic mechanism of disease, EPR oximetry may provide an early marker of disease onset.
Neurofilament light chain (NF-L) is also emerging as a sensitive blood-based biomarker of axonal degeneration. NF-L is a component of the axonal cytoskeleton that leaks out of degenerating axons. NF-L has been reported to be elevated in plasma or serum in a wide range of neurodegenerative disorders, including CNS disorders such as multiple sclerosis and ALS as well as PNS disorders such as Charcot Marie Tooth and Guillain-Barre syndrome. To date, there are no published reports of elevated blood NF-L levels in patients with CIPN, although it has been reported to increase in rat model of vincristine-induced neuropathy.
In this proposal, the investigators will be testing the hypothesis that these could both be biomarkers of CIPN. It is hoped that the oximetry measurement and blood NF-L levels will (i) reflect the changes that occur on a cellular level and the damaged nerves, (ii) reflect the damage occurring to nerves more sensitively than existing techniques, and (iii) help to better understand the reason the nerves are being damaged. It is also hoped that these will be something that can be used in future clinical trials.
Healthy volunteers accepted: No
Only the study team can determine whether someone qualifies for participation.
Inclusion criteria
Exclusion criteria
Subjects will have up to five EPR oximetry readings at each study visit. Subjects will place the foot with the paramagnetic ink injection between the two magnets of the EPR device. Continuous scans will be acquired for 10 minutes while the subject breathes room air, 10 minutes while the subject breathes enriched 100% oxygen, and 10 minutes while breathing room air again.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
EPR Oximetry will measure tissue oxygen levels in the injected foot during 10 minutes of breathing room air, 10 minutes while breathing 100% oxygen, and 10 minutes of room air.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
MRC scale for muscle strength (0-5) Grade 5: Normal Grade 4: Movement against gravity and resistance Grade 3: Movement against gravity over (almost) the full range Grade 2: Movement of the limb but not against gravity Grade 1: Visible contraction without movement of the limb (not existent for hip flexion) Grade 0: No visible contraction
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
MRC scale for muscle strength (0-5) Grade 5: Normal Grade 4: Movement against gravity and resistance Grade 3: Movement against gravity over (almost) the full range Grade 2: Movement of the limb but not against gravity Grade 1: Visible contraction without movement of the limb (not existent for hip flexion) Grade 0: No visible contraction
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
MRC scale for muscle strength (0-5) Grade 5: Normal Grade 4: Movement against gravity and resistance Grade 3: Movement against gravity over (almost) the full range Grade 2: Movement of the limb but not against gravity Grade 1: Visible contraction without movement of the limb (not existent for hip flexion) Grade 0: No visible contraction
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
MRC scale for muscle strength (0-5) Grade 5: Normal Grade 4: Movement against gravity and resistance Grade 3: Movement against gravity over (almost) the full range Grade 2: Movement of the limb but not against gravity Grade 1: Visible contraction without movement of the limb (not existent for hip flexion) Grade 0: No visible contraction
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
MRC scale for muscle strength (0-5) Grade 5: Normal Grade 4: Movement against gravity and resistance Grade 3: Movement against gravity over (almost) the full range Grade 2: Movement of the limb but not against gravity Grade 1: Visible contraction without movement of the limb (not existent for hip flexion) Grade 0: No visible contraction
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
The position of the intersect is recorded on an arbitrary scale from 0 to 8 on a Rydel-Seiffer tuning fork once the subject is no longer perceiving vibration.
The higher the number, the better the vibratory sense.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
The position of the intersect is recorded on an arbitrary scale from 0 to 8 on a Rydel-Seiffer tuning fork once the subject is no longer perceiving vibration.
The higher the number, the better the vibratory sense.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
The position of the intersect is recorded on an arbitrary scale from 0 to 8 on a Rydel-Seiffer tuning fork once the subject is no longer perceiving vibration.
The higher the number, the better the vibratory sense.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
The position of the intersect is recorded on an arbitrary scale from 0 to 8 on a Rydel-Seiffer tuning fork once the subject is no longer perceiving vibration.
The higher the number, the better the vibratory sense.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
The position of the intersect is recorded on an arbitrary scale from 0 to 8 on a Rydel-Seiffer tuning fork once the subject is no longer perceiving vibration.
The higher the number, the better the vibratory sense.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
REFLEX SCALE for Deep Tendon Reflexes (DTRs)
The score ranges from 0 - 9, where 0 is no reflex response (areflexia)/always abnormal, greater than 1 and less than 3 is normal, and 9 is a tap that elicits a repeating reflex (clonus)/always abnormal.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
REFLEX SCALE for Deep Tendon Reflexes (DTRs)
The score ranges from 0 - 9, where 0 is no reflex response (areflexia)/always abnormal, greater than 1 and less than 3 is normal, and 9 is a tap that elicits a repeating reflex (clonus)/always abnormal.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
REFLEX SCALE for Deep Tendon Reflexes (DTRs)
The score ranges from 0 - 9, where 0 is no reflex response (areflexia)/always abnormal, greater than 1 and less than 3 is normal, and 9 is a tap that elicits a repeating reflex (clonus)/always abnormal.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
REFLEX SCALE for Deep Tendon Reflexes (DTRs)
The score ranges from 0 - 9, where 0 is no reflex response (areflexia)/always abnormal, greater than 1 and less than 3 is normal, and 9 is a tap that elicits a repeating reflex (clonus)/always abnormal.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Patients will be phenotyped by a neurologic examination before and after exposure to a standard regimen of neurotoxic chemotherapy.
REFLEX SCALE for Deep Tendon Reflexes (DTRs)
The score ranges from 0 - 9, where 0 is no reflex response (areflexia)/always abnormal, greater than 1 and less than 3 is normal, and 9 is a tap that elicits a repeating reflex (clonus)/always abnormal.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy. The outcome measure is reporting the average of the differences in amplitudes Pre-Mid and Pre-Post exposure (for example, the change from Pre and Mid is calculated, and then the change across all participants is averaged).
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction amplitude in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Electrophysiologic testing will measure nerve conduction velocity in patients before and after exposure to a standard regimen of neurotoxic chemotherapy.
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Neuropathy-Specific Quality of Life scale measuring Positive Affect and Well Being
The range in score is 23 to 115, with a low score indicating a less positive affect and well-being
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Neuropathy-Specific Quality of Life scale measuring Satisfaction with Social Roles and Activities
The range in scores is 47 to 235, with a lower score indicating less satisfaction with social roles and activities
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Neuropathy-Specific Quality of Life scale measuring Lower Extremity Function (Mobility)
The range in scores is 19 to 95, with a lower score indicating more difficulty with lower extremity function
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Neuropathy-Specific Quality of Life scale measuring Upper Extremity Function (Fine Motor, Activities of Daily Living)
The range in scores is 20 to 100, with a low score indicating more difficulty with upper extremity function
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Neuropathy Total Symptom Score questionnaire with 6 questions
The range is scores is 0 to 22 with a higher score indicating worse symptoms
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Toronto Clinical Neuropathy Scoring System
The range in scores is 0 to 19 with higher scores indicating worse neuropathy
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
National Cancer Insitute - Common Toxicity Criteria
The range in scores is 0 to 5, with higher scores indicating worse toxicity
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Total Neuropathy score
The range in scores is 0 to 40, with higher scores indicating worse neuropathy
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Survey of Autonomic Symptoms, questions in Column B
The range in scores is 0 to 55 for women and 0 to 60 for men, with higher scores indicating more bothersome symptoms
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
McGill Visual Analog Scale for Pain
The range in scores is 0 to 100, with 0 indicting "No pain" and 100 indicating "Worst pain possible"
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Short Form McGill Pain Questionnaire
The range in scores is 0 to 15, with higher scores indicating worse pain
Time frame: Pre-chemotherapy (Baseline), Mid-chemotherapy (approximately 6 - 8 weeks from Baseline), Post-chemotherapy (approximately 2 - 3 weeks after the participant completed chemotherapy or approximately 14 - 18 weeks from Baseline)
Survey of Autonomic Symptoms, questions in column A
The range in scores is 0 to 11 for women and 0 to 12 for men, with higher scores indicating more symptoms
Time frame: 1 year
Changes in serum NFL levels over the course of chemotherapy will be monitored to determine if NFL can be used as a biomarker for axonal damage in patients who develop CIPN. NFL will be measured at baseline, before each round of chemotherapy and at the completion of chemotherapy. Changes in NFL will be compared between patients who develop CIPN and those that do not.
Dartmouth-Hitchcock Medical Center
Other
Biomarkers in Chemotherapy-Induced Peripheral Neurotoxicity: Better Tools and Understanding
Acronym: CIPN
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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