Liver Cancer, Adult

This study focuses on the early identification and precision prevention of acute kidney injury (AKI) following interventional therapy in patients with liver cancer. A prospective, phased mixed-methods research design will be adopted. In the first phase, a prospective cohort study will be conducted to systematically collect clinical and nursing-related data. A Super Learner ensemble algorithm will be employed to develop and validate an AKI risk prediction model, enabling precise risk stratification of patients. In the second phase, a prospective randomized controlled trial will be implemented. Guided by the Health Belief Model (HBM), a risk-stratified proactive nursing intervention will be delivered, and its effectiveness will be compared with that of routine nursing care in reducing the incidence of AKI, improving adherence to hydration protocols, optimizing the management of nephrotoxic medications, and enhancing patients' self-management capabilities. By integrating intelligent risk prediction with proactive nursing intervention strategies, this study aims to establish a reproducible and scalable precision prevention and management model for AKI in liver cancer patients undergoing interventional therapy. The findings are expected to provide scientific evidence for early AKI warning and proactive nursing practice, thereby promoting the precision, intelligence, and standardization of oncologic interventional nursing care.

This is a single-arm, open-label, single-center, first-in-human feasibility study evaluating parenchymal blood volume (PBV) imaging as a tool to dynamically assess perfusional changes in hepatocellular carcinoma (HCC) potentiated by intra-arterial administration of nitroglycerin.

This is a feasibility study that will collect data to assess the potential effect of nutritional intervention. This prospective single-site trial will enroll adult patients with liver diseases such as metabolic-dysfunction associated steatotic liver disease (MASLD), metabolic-dysfunction associated steatohepatitis (MASH), cirrhosis and/or hepatocellular carcinoma (HCC). Eligible individuals who are randomized to the intervention group will be enrolled in a six-month nutritional change program consisting of time-restricted eating plus targeted healthy changes in what they eat (TR-HE). The intervention includes dietary counseling visits with a study registered dietitian (RD) and motivational phone calls with a study Certified Health and Wellness Coach (HC). Individuals who are randomized to the control group or who elect to join the control group will be enrolled in a six-month period of observation and phlebotomy only. The main questions it aims to answer are: Is a prolonged nightly fast coupled with a healthy diet safe and feasible for patients with liver disease or cancer? Does the intervention improve liver metabolism?

This is an open-label, multi-center, Phase 1/2 clinical trial evaluating the safety, tolerability, and efficacy of ECT204, an investigational ARTEMIS® T-cell therapy, in adult subjects with GPC3-positive hepatocellular carcinoma (HCC) who have experienced disease progression on, or intolerance to, prior systemic therapy.

This clinical trial will test whether a short infusion of a drug called angiotensin II (AT-II) can make a liver cancer treatment work better. The drug is given directly into the artery that supplies blood to the liver, right before a treatment called yttrium-90 (90Y) radioembolization. The main questions it aims to answer are: * Does angiotensin II help more of the radioactive beads reach the tumor and less reach the healthy parts of the liver? * Is it safe to add angiotensin II to the standard radioembolization treatment? What will participants do? * First visit (work-up): Participants will have the standard preparation for radioembolization. A small test dose of radioactive tracer technetium 99mTc macroaggregated albumin (99mTc-MAA) will be injected into the liver through an artery. On the same day, a single-photon emission computed tomography (SPECT)/CT scan will be performed to see how the tracer distributes in the liver and if there are depositions outside the liver. If everything looks good, the participant will return for treatment in 2-3 weeks. * Second visit (treatment): Participants will receive the actual radioembolization treatment. At each injection site in the liver, first angiotensin II is administered, immediately followed by the injection of the radioactive beads (90Y microspheres). If the treatment requires injections in multiple locations, the participant will receive angiotensin II at each spot. * After treatment: Participants will receive a Positron Emission Tomography (PET)/CT scan so the research team can see where the radioactive beads went. This will be compared to the distribution of the radioactive tracer (99mTc-MAA) from the first SPECT/CT scan (performed without angiotensin II) to measure how much angiotensin II helped target the tumor. All monitoring (including blood pressure, heart rate, oxygen saturation, and breathing rate) takes place during the procedure as part of routine care, and there are no extra hospital visits beyond what is normally required for radioembolization.

This clinical trial studies how well 3-dimensional multi-parametric ultrasound (3D MPUS) imaging works as a decision-support tool for patients with liver tumors undergoing therapy. Continuous and dynamic imaging of patients undergoing therapy is required to monitor early-phase treatment response.

Radiation segmentectomy (RS) refers to selective infusion of Y-90 microspheres to the tumor bearing hepatic segment of hepatic artery. Majority of the data on RS is based on the Glass microspheres experience. Due to different properties of Resin and Glass microspheres description of dose limits to the segment for effectiveness of treatments with Resin microspheres are needed. Based on this background in this study it is aimed to evaluate the safety and efficacy of RS with resin microspheres in HCC patients. Secondly, it is planned to describe the dose limits for complete radiological response.

This study is a prospective, multicenter Phase II trial evaluating a personalized treatment strategy for patients with unresectable hepatocellular carcinoma (HCC). The study uses a metabolic classification system called the fatty acid degradation (FAD) subtype to guide therapy selection. Patients will be assigned to different treatment groups based on their tumor's FAD subtype, determined through RNA-seq analysis of the tumor tissue obtained from liver biopsy.

Transarterial radioembolization (TARE) is a key treatment option for patients with unresectable hepatocellular carcinoma (HCC), a primary form of liver cancer. TARE is a minimally invasive therapy in which radioactive microspheres are delivered through a microcatheter near the tumour into the liver's blood vessels. Although TARE can significantly improve survival, treatment outcomes remain variable and difficult to predict, mainly because of complex liver vasculature and unpredictable distribution of radioactive microspheres due to uncertain parameters such as catheter tip location, catheter orientation, and injection velocity. The long-term goal would be to make these treatments more predictable and effective by developing a patient-specific pre-treatment planning platform. Blood flow and microsphere transport will be modelled in a digital model of the patient-specific hepatic arterial tree (based on clinical imaging) using computational fluid dynamics (CFD), in combination with Monte Carlo-based radiation dosimetry. Using CFD simulations, we will investigate how variations in treatment parameters influence the microsphere distribution, aiming to better understand their role in treatment variability. This will allow us to predict the dose distribution of a certain treatment and determine potentially a more optimal set of treatment parameters. This research contributes to the broader field of cancer research by laying the foundations for a digital tool for personalized pre-treatment planning. The insights gained could support interventional radiologists in optimizing treatment planning, improving tumor targeting, and minimizing radiation exposure to healthy liver tissue in future TARE procedures.

This prospective, single-arm exploratory study evaluates the feasibility and safety of a novel ICG-Cisplatin self-assembled nanoprobe (NIR-II NanoM) for fluorescence-guided surgery in patients with Hepatocellular Carcinoma (HCC). Participants will receive a transarterial injection of the nanoprobe mixed with lipiodol prior to surgery. During the subsequent laparoscopic anatomic hepatectomy, surgeons will utilize a Near-Infrared II (NIR-II) imaging system to visualize tumor boundaries and liver segments for precise resection.

The goal of this clinical trial is to evaluate the safety of two durations of the Pringle maneuver in adults undergoing elective liver resection for malignant tumors. The main questions it aims to answer are: Is the incidence of post-hepatectomy liver failure different between 15-minute and 45-minute Pringle maneuver durations? * Do the durations differ in operative time or intraoperative blood loss? * Researchers will compare patients randomized 1:1 to 15 minutes vs 45 minutes of Pringle clamping to see if outcomes are non-inferior between groups. Participants will: * Undergo standard oncologic hepatectomy with the assigned Pringle duration. * Receive routine perioperative assessments, including laboratory tests and clinical evaluations. * Attend follow-up visits at approximately 6 months, 1 year, and 3 years after surgery.

Procedural data will be recorded from patients with liver metastases from colorectal cancer who have received at least one course of systemic chemotherapy and who have been assessed by an appropriately constituted MDT (or equivalent) as appropriate to receive irreversible electroporation.

Procedural data will be recorded from patients with liver lesions from hepatocellular cancer who have been assessed by an appropriately constituted MDT (or equivalent) as appropriate to receive irreversible electroporation

the investigators will pursue two specific aims: (1) to monitor the extent of heme oxygenase induction (by measuring endogenous CO production) in relationship to the extent of hepatic resection (2) to assess the production of CO in patients following liver resection and correlate these findings to the rate of liver regeneration and liver function.

This study focuses on developing an explainable machine learning model based on cardiopulmonary interaction characteristics to achieve early prediction of acute lung injury (ALI) in patients undergoing major liver surgery. The research will establish a digital early-warning system for ALI to provide support for clinical diagnosis and treatment decisions, thereby reducing the incidence and fatality rate of ALI.

Liver disease, a major global health burden, ranges from mild dysfunction to severe conditions like cirrhosis and hepatocellular carcinoma (HCC), the fifth most common cancer. Accurate diagnosis of liver lesions-distinguishing benign from malignant-is vital for treatment planning. Conventional imaging (ultrasound, CT, MRI) has limitations in sensitivity and detecting small metastases. PET/CT combines metabolic and anatomical data but struggles with small lesions and cirrhotic livers. 18F-FDG PET/MRI with contrast-enhanced MRI may improve diagnostic accuracy, but its clinical benefits remain uncertain. Further research is needed to evaluate its performance, impact on patient outcomes, and cost-effectiveness in liver disease management.

The goal of this observational study is to explore whether a Raman-based, deep learning-assisted approach can be used to develop an effective method for early pan-cancer screening. The study includes healthy individuals, patients at risk of cancer, and patients with diagnosed cancers. The main questions it aims to answer are: * Evaluating the deep-learning model's accuracy and specificity in identifying cancer-specific features in Raman spectral data and determining whether this method can accurately classify patients based on risk. * Identifying which model is more adaptable to the Raman spectrum * Providing an interpretable analysis of the model-generated diagnosis Participants are already being diagnosed and follow-up to determine the type of cancer.

This is an open-label and multi-center Phase 2 study to evaluate the safety and efficacy of autologous T-cells transfected with mRNA encoding Hepatitis-B virus (HBV)-antigen-specific T cell receptor (TCR) (LioCyx-M) as monotherapy or as combination with lenvatinib for the treatment of advanced HBV-related hepatocellular carcinoma (HCC).

The study is aimed to test the performance of a simple, easy, reproducible cytofluorimetric assay to complement imaging studies for: * predicting response to immune-therapeutic regimens in HCC in the early phase of treatment, * to rule out pseudo-progression, * to early predict the escape from effectiveness of treatment.

This is the first-in-human trial of MTS105 (mRNA-LNP). The goal of this clinical trial is to evaluate the safety, tolerability of intravenous injection of MTS105 in advanced hepatocellular carcinoma.