Head And Neck Carcinoma

This study collects blood and tissue samples from patients with cancer and without cancer to evaluate tests for early cancer detection. Collecting and storing samples of blood and tissue from patients with and without cancer to study in the laboratory may help researchers develop tests for the early detection of cancers.

This phase I/II trial studies the side effect and best dose of steroid therapy (prednisone or methylprednisolone) in improving symptoms of late radiation-associated lower cranial neuropathy in oropharyngeal cancer survivors. Steroid therapy with prednisone or methylprednisolone may help to improve symptoms associated with late radiation-associated lower cranial neuropathy.

This study collects information on the side effects of proton therapy and detailed information on the proton therapy treatment plan itself. This may help researchers develop methods to predict the risk of side effects for future patients and learn the long-term benefit of proton therapy.

This clinical trial compares the effect a financial intervention, called Financial Compass, to usual care in identifying and addressing financial hardship in patients with head and neck cancer. Previous research has shown that head and neck cancer patients experiencing financial hardship have decreased overall and cancer specific survival. Using a financial intervention, Financial Compass, may be more effective than usual care in identifying and addressing financial hardship in patients with head and neck cancer.

The goal of this phase II single arm clinical study is to evaluate the effect of antibiotics (metronidazole) and oral chlorhexidine (CHX) in reducing the bacteria load within tumors of patients undergoing surgery for oral cancer.

This phase II trial studies whether providing cancer treatment in the home is preferred over the traditional clinic setting and if it improves treatment satisfaction in cancer patients living in the Florida Panhandle and surrounding areas. Typically, drug-related cancer care is provided at a medical center which causes patients to have to spend considerable time away from their family, friends, and familiar surroundings. This may add to the physical, emotional, social, and financial burden for patients and their families during this difficult time in their lives. The Cancer Connected Access and Remote Expertise (CARE) Beyond Walls (CCBW) program uses a specialized care team trained to provide cancer treatment in the patient's home setting. It is designed to support remote connection between the home health team and providers and Mayo clinic. This may be preferred over the traditional clinic setting which may improve treatment satisfaction in cancer patients living in the Florida Panhandle and surrounding areas.

This study evaluates the cell and biomarkers associated with the aggressive behavior of cancer.

The purpose of this research is to identify a biomarker that is exists when human papillomavirus (HPV) mediated oropharyngeal squamous cell carcinoma is present and does not exist when HPV mediated oropharyngeal squamous cell carcinoma is absent.

This clinical trial studies the effect of customized 3 dimensional (3D) printed oral tents on patients with head and neck cancer who are receiving radiotherapy. Oral stents are made from the impression of patients' mouth and cover patients' teeth and gums during radiation therapy. A customized, 3D-printed oral stent may help to reduce mouth blisters and/or sores that may develop in patients while receiving head and neck radiation therapy.

This clinical trial examines the integration of cancer genetic testing in various ethnic populations. Studying individuals and families at risk of cancer may help identify cancer genes and other persons at risk. The information from this study may provide an opportunity for cancer risk stratification and individualized screening in these ethnic populations.

This clinical trial tests a new way to share radiation therapy plans using the Collaborative Oncology between Radiologists and Radiation oncologists for the Evaluation of Contoured Targets (CORRECT) workflow to improve communication and collaboration between radiation oncologists (ROs) and radiologists when determining cancer targets for radiation treatment. Systemic barriers limit critical communication between radiation oncologists and radiologists and can lead to both under and overdosing of radiation therapy (RT) tumor targets and failures to properly interpret post-treatment imaging. The limited formal diagnostic radiology training of many providers can make differentiating normal from disease imaging findings during target determination difficult, especially in complex disease sites like the lung, head, and neck. Inaccurate target determination may result in cancer return, excess toxicity, or both. Likewise, radiologists who cannot access prior RT plans may mistake expected RT changes for recurrent cancer or overlook true progression. The CORRECT workflow was developed by ROs and radiologists to address RO-radiology communication barriers by facilitating sharing of comprehensive RT target contours during RT planning. The CORRECT workflow begins with the normal process of RO target contouring. Computed tomography (CT) images are then fused with RT targets and pushed to a pre-designated Picture Archiving and Communications System (PACS) software folder accessible by the radiology department. The radiologist can then review the fused images at their chosen time and annotate images to indicate potential deviations (e.g., not avoiding normal tissue or not including all tumor). The RO reviews the annotated images and decides if any changes to treatment targets are needed for the final treatment plan. Through this independent, asynchronous review of high-quality images, CORRECT overcomes many of the limitations of existing communication methods between RO-radiologist, fostering a more collaborative, efficient, and precise approach to cancer treatment planning.

The purpose of this study is to evaluate the safety, tolerability and maximum tolerated dose of tislelizumab in combination with pamiparib plus chemoradiotherapy (chemotherapy and radiation) in individuals with recurrent head and neck cancer, which means that the person's cancer has come back after treatment. Participation in the study should last for about 15 months while participants receive tislelizumab and chemoradiotherapy with pamiparib. Afterwards, they will return to the clinic for follow up every 4 months for 2 years, every 6 month for the next 2 years, and then once a year for the rest of their life.

The purpose of this study is to test the treatment approach of de-escalated radiation and chemotherapy followed by a planned neck dissection surgery in people with head and neck cancer. The study will look at how effective the treatment approach is against participants' cancer.

Despite improvements in treatments, head and neck cancer survivors (HNCS) still endure acute and chronic side effects such as loss of muscular strength, limitations in physical functioning, fatigue, and swallowing difficulties that impact quality of life (QoL) and limit return to work. Light-to-moderate intensity strength training (LMST) has been shown to improve some side effects. Heavy lifting strength training (HLST) may further improve outcomes in some populations, however, only one small pilot study has focused on HNCS. The LIFTING 2 trial will be the first to examine the feasibility and effects of a HLST program versus no exercise in HNCS.

This trial tests how well personalized ultra fractionated stereotactic adaptive radiotherapy (PULSAR) works together with HyperArc© radiation treatment planning technology for palliative (holistic pain and symptom control) tumor control in patients with primary or recurrent, localized or metastatic head and neck cancer (HNC) who are ineligible for or decline standard of care treatment. Researchers want to evaluate if using HyperArc and PULSAR together will deliver higher, possibly more effective doses, resulting in better tumor control with the same or fewer side effects than smaller routine doses. PULSAR is a radiation therapy regimen that uses a limited number of fairly large dose pulses while adjusting to specific anatomic and/or biological changes which may occur during the course of the treatment. HyperArc radiation treatment planning technology is a tool that allows for target dose escalation to tumor tissue while maintaining minimal head and neck organs-at-risk doses compared to other radiation treatment planning software. Undergoing PULSAR and HyperArc technology together may be a safe and effective palliative treatment option for patients with HNC.

Our institution recently began incorporating a novel "tongue-out" radiation therapy (TORT) technique for patients with head and neck tumors at particular subsites (oropharynx, larynx, hypopharynx). Protruding the tongue, i.e. "tongue-out" position, induces anatomical changes that facilitate decreased radiation dose to the oral tongue and PCM. The long-term goal is to determine whether TORT results in reduced severity and faster recovery from acute treatment-related toxicities (particularly mucositis, dysphagia, and dysgeusia) and improved long-term swallowing function and taste compared to traditional "tongue-in" RT for patients with HNC.

This is a multicenter, open-label, Phase 1/2 study of orally administered VMD-928 monotherapy and in combination with pembrolizumab in adult subjects with advanced solid tumors or lymphoma that have progressed or are non responsive to available therapies and for which no standard or available curative therapy exists

This study is a multicentric double-blind placebo-controlled dose escalation trial of a CD40HVac vaccine (humanized anti-CD40 mAb fused to HPV16 E6/E7 oncoproteins) adjuvanted with poly-ICLC (Hiltonol) in patients with HPV16 oropharyngeal carcinoma with no evidence of residual or recurrent disease after surgery and/or radiochemotherapy. The primary objective is to determine the recommended phase 2 dose (RP2D) of a poly-ICLC(Hiltonol)-adjuvanted CD40HVac vaccine according to the safety and the capacity to elicit immune responses of different doses Two dose levels of poly-ICLC-adjuvanted CD40.HVac will be explored * 1st dose level: CD40.HVac 1.0 mg, with 1.0 mg poly-ICLC * 2nd dose level: CD40.HVac 3.0 mg, with 1.0 mg poly-ICLC The safety data will be reviewed by an IDSMB that will give recommendations.

This clinical trial tests how well a three-dimensional (3D) mindfulness virtual reality (VR) versus (vs) two-dimensional (2D) non-immersive interventions works in improving depression, anxiety, pain, and/or stress in patients with head and neck cancer (HNC) undergoing radiation or chemoradiation (C/RT), and their caregivers. HNC patients undergoing C/RT can experience higher levels of depression, anxiety, distress and pain that negatively impact their quality of life. VR allows for a realistic experience and works as an effective distraction tool from the state of pain or anxiety without use of drugs and with minimal associated risk to patients. VR has been shown to help reduce symptoms of depression, anxiety and pain in non-cancer patients, however there is limited evidence of how well VR use works in cancer patients, especially in patients undergoing C/RT for HNC. Caregivers of these patients also experience high levels of anxiety and distress. Using VR interventions may improve depression, anxiety, pain and/or stress in patients with HNC undergoing C/RT and their caregivers.

This phase I study of an accelerator-based boron neutron capture therapy (BNCT) in the treatment of locally recurrent head and neck carcinoma, is sponsored by HUS, Haartmaninkatu 4, Helsinki, Finland and Neutron Therapeutics Finland OY, Kanavaranta 9 FIN-00290 Helsinki. The indication is for patients with head and neck carcinoma that has recurred locally after conventional radiation therapy. The primary objective is to demonstrate the safety of accelerator-based neutron radiation using the nuBeam Suite in delivering BNCT. The secondary objective is the ability to deliver the planned radiation dose to the target site and the ability to plan the trial treatment using the trial treatment planning software, position and target the tumor site using the robotic table in conjunction with the CT scanner and calculate the required radiation dose for each planned BNCT trial treatment. To establish these objectives, the following parameters will be controlled: * Objective response rate * Duration of response. * The clinical benefit rate (includes complete response, partial response, and stabilized disease for a minimum of 8 weeks since the date of the first BNCT). * Locoregional recurrence-free survival. * Progression-free survival. * Overall survival. * Quality of life. The maximum sample size is 10 study subjects evaluable for safety. The study does not involve randomization. Regarding the target population, the study subjects must fulfill each of the inclusion criteria: 1. Patient has provided a written informed consent as approved by the EC prior to study specific screening procedures, with the understanding that the patient has the right to withdraw from the study at any time, without prejudice. 2. ≥ 18 years of age at the time of enrollment. 3. Histologically confirmed head and neck carcinoma. 4. Inoperable cancer, prior surgery may or may not have been done. 5. Prior radiotherapy or chemoradiotherapy has been given. 6. Anticipated life expectancy of at least 6 months Patients who fulfill any of the following criteria will be excluded: 1. Presence of distant metastases. 2. World Health Organization (WHO) performance status \> 2 3. Concurrent uncontrolled localized cancer other than head and neck carcinoma or overtly metastatic cancer. 4. The patient has access to a non-experimental, effective treatment option and is a suitable candidate for such therapy. 5. Concomitant chemotherapy. 6. Concurrent experimental therapy or participation in a trial with an experimental therapy within 3 months prior to study inclusion. 7. Less than 3 months since prior radiation therapy. 8. Major surgery within 4 weeks prior to study inclusion. 9. Unremovable metal implants present in the head and neck region that will interfere with CT/MRI-based dose-planning. 10. Known sensitivity to the study drug. 11. One or more of the following: * Blood hemoglobin \< 100 g/L, neutrophils \< 1.5 x 109/L, platelet count \< 120 x 109/L * Serum/plasma creatinine \> 1.5 x Upper Limit of Normal (ULN) * Serum bilirubin 2.0 \> ULN * Serum ALT and/or AST \> 2.0 x ULN * Serum alkaline phosphatase \> 2.5 x ULN 12. Serious uncontrolled infection or other serious uncontrolled concomitant disease. 13. Collagen vascular disease or a disease that is considered to increase radiosensitivity of normal tissues to radiation (e.g., ataxia-telangiectasia) 14. Patient is unwilling or unable to comply with the CIP required follow-up visits for the duration of the study. 15. Untreated or severe treated congestive heart failure, cardiac pacemaker, or renal failure. 16. Restlessness or inability to lie in a cast for about 30 minutes. 17. Clinical follow-up after therapy cannot be arranged or the patient is not willing to participate in the follow-up. 18. Known pregnancy, breastfeeding, or planning of pregnancy; for women of childbearing potential, a negative pregnancy test must be obtained prior to enrollment. 19. The patient is not able to understand the nature of the study and trial treatment options. 20. Phenylketonuria 21. Fructose intolerance. There is one investigational device included as part of this study. The nuBeam Suite has two main components, the Treatment Delivery System and the nuBeam Dose Engine. The study drug included in this study is L-boronophenylalanine fructose (L-BPA Fructose)

This purpose of this study is to examine skin reactions (called radiation dermatitis) that occur during pencil beam scanning (PBS) proton therapy. The researchers will test a unique technique called "Spot Delete" to see if it can reduce skin reactions for head \& neck patients treated with PBS. The investigators will also use a special computer model to study how the energy of the proton beam (linear energy transfer) is related to these skin reactions. The study involves creating a treatment plan based on a CT scan, which helps guide the proton beam in the body.

Multicentre, retrospective and prospective observational study aimed to set-up a clinical Italian registry in order to collect information on carcinoma of the Head and Neck.