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  • LDGraft in Single Level Anterior Lumbar Interbody Fusion (ALIF)

    This is a prospective, randomized, controlled, single-blind, dose-finding, multi-center study which intends to demonstrate the safety of both LDGraft groups versus allograft during a single level ALIF procedure. This is a first in human (FIH) study. The study will enroll patients with lumbar degenerative disc disease (DDD) requiring single level ALIF. The procedure will involve use of an intervertebral cage and fixation (plate and screws). Upon successful completion of the Screening period and confirmation of eligibility the participant will allocated 3:3:2 to the LDGraft groups (investigational) or the allograft control group. Participants will be blinded to the treatment assigned however the surgical procedure and the post operative recovery will be managed in accordance with standard clinical practice for anterior lumbar interbody fusion.

    Phase

    1/2

    Span

    164 weeks

    Sponsor

    Locate Bio Pty Ltd

    Newcastle, New South Wales

    Recruiting

  • AusCADASIL: An Australian Cohort of CADASIL

    Using clinical examination, questionnaires, neuropsychological evaluation, brain MRI, blood sample evaluation and retinal imaging, we aim to characterise the clinical profile and progression of CADASIL in an Australian cohort. This is multi-centre observational cohort study currently based at six sites (clinics, hospitals and universities) across three states in Australia (New South Wales, Victoria and Queensland). The multidisciplinary team aims to be the first to develop an Australian cohort of CADASIL which will contribute to global efforts and understanding of the disease.

    Phase

    N/A

    Span

    175 weeks

    Sponsor

    Perminder Sachdev

    Newcastle, New South Wales

    Recruiting

    Healthy Volunteers

  • Optimal Precision TherapIes to CustoMISE Care in Childhood and Adolescent Cancer

    Both Australia (Zero Childhood Cancer) and Canada (PROFYLE) have developed precision oncology programs for the pediatric population through which samples from childhood/adolescent cancers undergo in depth genetic profiling. OPTIMISE is a companion platform trial, which will link patients to novel targeted agents based on their tumor profile. The trial will have multiple basket arms based on the most common genetically altered pathways the investigators have identified in these childhood cancers. Each arm of the trial will be histopathology agnostic and test a rational, novel combination therapy, to maximise potential clinical benefit.

    Phase

    1/2

    Span

    599 weeks

    Sponsor

    Australian & New Zealand Children's Haematology/Oncology Group

    Newcastle, New South Wales

    Recruiting

  • Effect of 10 mg Xanamem on Dementia Due to Alzheimer's Disease

    Phase

    2

    Span

    90 weeks

    Sponsor

    Actinogen Medical

    Newcastle, New South Wales

    Recruiting

  • Study of Perioperative Dostarlimab in Participants With Untreated T4N0 or Stage III dMMR/MSI-H Resectable Colon Cancer

    Phase

    3

    Span

    387 weeks

    Sponsor

    GlaxoSmithKline

    Newcastle

    Recruiting

  • Individualised Blood Pressure Targets Versus Standard Care Among Critically Ill Patients With Shock

    Phase

    N/A

    Span

    276 weeks

    Sponsor

    Rakshit Panwar

    Newcastle, New South Wales

    Recruiting

  • Sedation, Temperature and Pressure After Cardiac Arrest and Resuscitation

    3500 patients who are comatose after cardiac arrest will be included in a trial studying three separate targets. All patients will be randomised to a control or an intervention arm for sedation, temperature and blood pressure targets. These are. 1. Continuous deep sedation for 36 hours or minimal sedation (SEDCARE) 2. Fever management with or without a feedback-controlled device (TEMPCARE) 3. A mean arterial pressure target of >85mmHg or >65mmHg. (MAPCARE) Participants will be followed up at 30 days and 6 months. The primary outcome will be survival at 6 months.

    Phase

    N/A

    Span

    150 weeks

    Sponsor

    Region Skane

    Newcastle, New South Wales

    Recruiting

  • Antenatal Melatonin Supplementation for Neuroprotection in Fetal Growth Restriction

    Following detection of FGR, current goals in clinical care center on assessment of fetal wellbeing and evidence of a physiological adaption to placental insufficiency. This information guides the timing of steroids, if indicated, and planning of delivery to minimise the likelihood of stillbirth. Magnesium sulphate is the only available therapy shown to improve fetal brain development in the setting of placental insufficiency and hypoxia. Magnesium sulphate works through reducing glutamate release in a hypoxic environment, likely minimising hypoxic brain injury. It appears to reduce the risk of subsequent cerebral palsy by approximately 30%. However, magnesium sulphate is only used in the hours immediately before birth, while a significant proportion of underlying brain injury in FGR probably occurs over the preceding days to weeks. The use of a safe, maternally administered supplement commenced in the weeks prior to birth could provide further significant benefits in reducing the complications faced by premature infants in the setting of placental insufficiency. Melatonin (5-methoxy-N-acetyltryptamine) is an endogenous lipid-soluble hormone produced primarily by the pineal gland in humans. It provides circadian and seasonal timing cues due to neuroendocrine control in response to daylight. As such, melatonin secretion is relatively low during the daytime, with an exponential increase in synthesis and secretion occurring from mid-afternoon and peaking at midnight. In addition to timing cues, melatonin is a powerful antioxidant, acting both as a direct scavenger of oxygen free radicals, especially the highly damaging hydroxyl radical, and indirectly via up-regulation of antioxidant enzymes including glutathione peroxidase, glutathione-reductase, superoxide dismutase and catalase. The metabolites of melatonin provide further anti-oxidant effect. Melatonin is an appealing treatment for use as a fetal neuroprotectant in pregnancy, as it freely crosses the placenta and blood-brain barrier. It also has an excellent safety profile with no known adverse effects. Placentae express receptors for melatonin, and thus melatonin may protect against oxidative stress generated by ischaemia-reperfusion injury of the placenta. Melatonin has been studied in several clinical trials related to human reproduction and for different purposes. However, no randomized trial assessing the role of melatonin in fetal neuroprotection has been completed. Melatonin has been evaluated in assisted reproductive technology where the quality of oocytes is vital for the success of in-vitro fertilization (IVF). Melatonin and myo-inositol are two compounds found in the follicular fluid that are important for oocyte maturation and quality. Tamura et al. (in 2008) and Rizzo et al. (in 2010) conducted clinical studies where they co-treated patients with 2milligram (mg) and 3mg melatonin respectively. The patients in the Tamura et al. study were given melatonin from the fifth day of the previous menstrual cycle until the day of oocyte retrieval. Both studies revealed improved oocyte quality, but the tendency to increase pregnancy rates failed to reach statistical significance. A study conducted by Unfer et al. in 2011 administered 2g myo-inositol, 200µg folic acid plus 3mg melatonin per day for 3-months to women who failed to become pregnant in previous IVF cycles, at the commencement of a new IVF cycle. This treatment resulted in a total of 13 pregnancies, 9 of which were confirmed ultrasonographically and 4 undergoing spontaneous abortion. Treatment continued after completion of the IVF cycle, throughout pregnancy until delivery. Treatment was associated with better quality oocytes and more successful pregnancies. All babies that were born from melatonin-treated pregnancies were in healthy condition with no abnormalities. To evaluate the maternal-fetal transfer of melatonin a study by Okatani et al. in 1998 administered a single oral dose of 3mg melatonin to 33 women at term (37-40 weeks gestation) 1- to 4-hours before a planned caesarean section. Levels of melatonin were evaluated in maternal venous blood and umbilical venous and arterial blood. A total of 12 healthy pregnant women delivered by vaginal birth served as controls. Administration of melatonin led to a rapid (<120 minutes) and marked (>20-fold) increase in the fetal serum levels. There were no differences between maternal and fetal serum levels of melatonin, suggesting a rapid and unrestricted transfer of melatonin from mother to fetus. The same investigators tested whether melatonin could up-regulate antioxidant enzymes. No longer than 12 hours before voluntary termination of pregnancy (between 7- and 9-weeks gestation), an oral dose of 6mg melatonin was administered to 47 pregnant women. A significant increase of the antioxidant enzyme glutathione peroxidase was observed in chorionic homogenates derived after the procedure, leading to the conclusion that melatonin might provide an indirect protection against injury caused by reactive oxygen species as seen in preeclampsia, FGR and fetal hypoxia. The dose used in this trial is based on data from a clinical trial of melatonin for preeclampsia showing that 30mg per day was safe for mother and baby without any apparent adverse effects. Venous cord blood concentrations of melatonin achieved were unchanged between a mother receiving 8mg and 30mg per day of melatonin (melatonin concentration ~2100pg/mL). This cord blood concentration would appear sufficient for neuroprotection according to information in sheep models. However, the degree of oxidative stress reduction achieved within the placental bed was less in mothers receiving 8mg melatonin per day. As such, it was felt that the higher dose of 30mg per day was more likely to achieve a clinically significant result. The investigating team has shown that melatonin supplementation exerts multiple anti-oxidant and anti-inflammatory effects, leading to a significant reduction in oxidative stress and lipid peroxidation within the fetal brain in an ovine model of FGR. In the absence of melatonin, this study showed that lipid peroxidation within the fetal brain led to significant white matter hypomyelination and axonal injury, causing impaired neurological performance in the lambs. Injury was ameliorated entirely in those exposed to melatonin supplementation, with no structural brain injury seen and neurodevelopmental outcomes normalised. As a result, a small (n=12) phase 1 trial was conducted at Monash Health supplementing pregnancies affected by severe FGR with 8mg of melatonin per day. Melatonin use was well tolerated with no adverse effects seen. A reduction in the degree of placental lipid peroxidation was seen (n=6). Early-onset FGR carries significant fetal risks of premature birth. Following diagnosis, those babies requiring delivery <32 weeks gestation carry approximately an 8% risk of stillbirth or neonatal death, with those born <28 weeks gestation having a significantly higher perinatal mortality rate. Around 30% of survivors will suffer serious neonatal morbidity. Furthermore, 8% are found to have neurodevelopmental impairment at two years of life. These numbers are likely to be an underrepresentation as they are from a trial population, which was closely surveyed compared to the general population. With approximately 97% of FGR infants born <32 weeks delivered by caesarean section, the mother of a preterm FGR fetus faces the risks associated with morbidity and mortality relating to caesarean birth. Furthermore, the mother also faces a significant risk of morbidity and mortality from pre-eclampsia, which develops among 15 - 40% of women who have a growth-restricted fetus. The most common side effects of melatonin are headache, dizziness, nausea and sleepiness. Melatonin does not have any acute pharmacological effects on the nervous or vascular systems, apart from its benign but active impact on sleep mechanisms. Extremely high doses of up to 800mg/kg of melatonin were safely administered to animals without deaths, meaning a median lethal dose could not be established. In humans, long-term treatment with high, daily doses of up to 10g melatonin did not cause any toxicity except for isolated cases of cutaneous flushing, abdominal cramps, diarrhoea, scotoma lucidum and migraine. Prolonged ingestion of 1g melatonin per day caused only subjective drowsiness but did not provoke any toxicity in the eyes, liver, kidneys and bone marrow. In a phase II clinical trial conducted in the Netherlands, 1400 women were given 75mg melatonin nightly over 4-years, with no side effects reported. The safety of melatonin use in pregnancy was explored in early pregnant Sprague-Dawley rats, at doses ranging from 1 to 200mg/kg/day and did not affect antenatal mortality, fetal body weight or other measures of fetal wellbeing. Maternal adverse effects seen at high doses, included mild sedation, reduced maternal weight gain and reduced food intake. This study sought to determine the maternal and fetal no adverse effect level (NOAEL). The NOAEL is the exposure level where a particular substance does not statistically or biologically significantly increase the frequency or severity of adverse effects in an exposed population compared to a suitable control population. The maternal NOAEL in this study was found to be 100mg/kg/day, the fetal NOAEL was established at ≥200mg/kg/day when administered to the mother. The maternal lowest observed adverse effect level toxicity was 200mg/kg/day. With the above information taken in context, the Australian Therapeutic Goods Administration (TGA) has assigned melatonin a Pregnancy Category B3 classification. The investigators have recently completed a phase 1 trial (NCT01695070) using melatonin supplementation in pregnancy, as well as a clinical trial in women with pre-eclampsia (ACTRN12613000476730) using the same dose as proposed for this trial, and to date no adverse effects have been identified in the mother, fetus or neonate. PROTECT Me aims to be a multicentre, triple-blinded, randomized, parallel group, placebo controlled trial. This trial will be undertaken and co-ordinated by Monash Health. Other perinatal hospitals across Australia and New Zealand have agreed to join the trial so far. Each centre will nominate a local investigator +/- a researcher to oversee local recruitment. The required sample size has been calculated to detect if melatonin supplementation affords a clinically relevant difference in neurodevelopmental outcomes among survivors. An increase of 4-5 quotient points in the Bayley-IV Cognitive scale has been deemed sufficiently clinically meaningful to drive changes in health policy previously. Power analysis shows that 69 participants per group will allow the detection of a difference in the Bayley-IV cognitive score of 5 points between the two groups, with a power of 90% and an alpha level of 0.05, using 2 sided T test for comparison. This assumes a standard deviation of 9 and that, on average, the growth restricted infant has been shown to have a cognitive score 5 points lower than the healthy preterm infant and 8 points lower than the healthy term infant. Typically, the Bayley IV score has a standard deviation of 15, however reduced variability has been seen in the FGR population and this has informed the standard deviation used here. Among pregnancies complicated by early onset FGR a perinatal loss rate of ~15% is commonly observed. Allowing for a perinatal loss rate of 15%, an extra 44 women will be recruited. Assuming an additional 5% loss to follow-up rate, the investigators will aim to recruit an extra 14 participants. This trial also aims to assess whether the impact of melatonin is different at different gestational ages. Therefore, a sub-analysis will be undertaken to compare those with early onset FGR identified <28 weeks' gestation to those with late-onset FGR identified between 28-31+6 weeks gestation. To ensure that this sub-analysis is adequately powered, participants recruited will be randomized to either melatonin or placebo based on their gestational age at diagnosis. Therefore, recruiting 84 participants per group will see the overall trial aiming to recruit 336 participants.

    Phase

    3

    Span

    349 weeks

    Sponsor

    Monash University

    Newcastle, New South Wales

    Recruiting

    Healthy Volunteers

  • ONC-392 Versus Docetaxel in Metastatic NSCLC That Progressed on PD-1/PD-L1 Inhibitors

    This is a seamless 2-stage, randomized, open-label, active-controlled, Phase 3 study. The study population consists of patients with NSCLC who progressed on PD-1/PD-L1 inhibitor. Approximately 600 patients will be enrolled. Two gotistobart dosing regimens will be tested in Stage I, and one will be selected for Stage II. Stage I, the dose-confirmation stage, will assess the efficacy and safety of two gotistobart dosing regimens (3 mg/kg Q3W and 6 mg/kg Q3W with 2 loading doses of 10 mg/kg Q3W) in comparison to docetaxel 75 mg/m2 Q3W. Stage II will assess the safety and efficacy of gotistobart at the selected dosing regimen versus docetaxel. Patients will be randomized 1:1 to receive either gotistobart at the selected dosing regimen or docetaxel.

    Phase

    3

    Span

    209 weeks

    Sponsor

    OncoC4, Inc.

    Newcastle, New South Wales

    Recruiting

  • SBD121, a Synbiotic Medical Food for RA Management

    Phase

    N/A

    Span

    96 weeks

    Sponsor

    Solarea Bio, Inc

    Newcastle, New South Wales

    Recruiting

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