Neoplasms

Digestive System Diseases

All Conditions

Rare Diseases

Stomach Neoplasms

Gastrointestinal Neoplasms

Digestive System Neoplasms

Gastrointestinal Diseases

Stomach Diseases

Stomach Cancer

Every patient referred to our center for upper gastrointestinal endoscopy for investigation and/or resection of gastric neoplastic lesion can join the cohort of this study and will benefit from diagnosis and treatment by experienced endoscopists.

Evaluation of the proportion of gastric neoplastic lesions detected by a computer-aided diagnosis system (CADx) compared with experienced endoscopists.

Pierre LAFEUILLE, MD

Matthieu PIOCHE, MD

Mathieu PIOCHE, MD

Laurent MAGAUD, CRA

Upper gastrointestinal (GI) cancers are one of the most common cancers worldwide. Except for cardia cancers, the incidence of gastric cancer has decreased consistently since 1980, but remains at a high level. In France, gastric cancers are the 6th most common cause of cancer-related mortality. The risk factors of upper GI cancers are well known and their control could prevent the development of cancers: smoking cessation, reduction of obesity, alcohol, eradication of Helicobacter pylori. But late presentation with upper GI cancer results in a poorer prognosis. Patients with advanced (Stage IV) gastric cancer have a five-year survival rate of 3.7% whereas patients whose gastric cancer is discovered in its early stage (Stage I) have a significantly higher five-year survival rate of 88.4%. Therefore, endoscopic detection of upper GI lesions at an earlier stage is the single most effective measure for reducing cancer mortality. But upper GI cancer is also often missed during examinations, and some studies demonstrated a missed cancer rate of 2.3-13.9% in Western populations. In the past decade, accurate diagnosis during endoscopy has become particularly important as dysplastic lesions and early gastric cancers can be treated effectively with both endoscopic mucosal resection (EMR) and endoscopic submucosal dissection (ESD), avoiding the morbidity and mortality associated with gastrectomy. However, these early neoplastic lesions can be sometimes difficult to distinguish from background mucosa, even with advanced imaging techniques (high definition, chromoendoscopy).

In recent years, image recognition using artificial intelligence (AI) with deep learning has dramatically improved and opened the door to more detailed image analysis and real time application in various medical field, including endoscopy. For example, in the colorectal cancer screening area, real time computer-aided detection systems (CADe) can lead to significant increases in both polyp and adenoma detection rates.

CADe has also shown good performance in detection of Barrett's neoplasia during live endoscopic procedures in order to more accurately locate the area to be biopsied. Recently, a Chinese study showed that CADe achieved high diagnostic accuracy in detecting upper GI cancers, with sensitivity similar to that of expert endoscopists and superior to that of non-experts. This system could support non-experts by improving their diagnostic accuracy to a level similar to that of experts and provide assistance for improving the effectiveness of upper GI cancer diagnosis and screening.

Although encouraging results have been published regarding the use of AI in the diagnosis of upper GI cancers, the clinical applicability of such systems in a European population has yet to be investigated.

Therefore, we want to evaluate the diagnostic capability of a recent CADx compared to endoscopists in order to improve the real-time detection of early gastric cancers in our European center Edouard Herriot Hospital, Lyon, France, as well as 3 other tertiary centers in France (Limoges, Rennes and Nancy University Hospitals).

With a high prevalence of stomach cancer, Japan is a world leader in high-quality diagnostic upper GI endoscopy, and the clinical routine in this country differs substantially from Western practice, with population-based screening programs. We will use for our study a CADx developed by AI medical service Inc. (1-18-1, Higashiikebukuro, Toshima-ku, Tokyo 170-0013, Japan), a Japanese company developing AI systems that supports endoscopist's diagnosis for the digestive tract. A recent study involving AI medical service system showed good results in the diagnosis of early gastric cancer compared to endoscopists, with a significantly higher sensitivity.

Evaluation of a Computer-aided Diagnosis System (CADx) in the Early Detection of Gastric Cancer in France. Cancer in France.

Early Detection of Gastric Cancer in France: Evaluation of the Diagnostic Capacity of a Computer-aided Diagnostic System (CADx) Compared to Endoscopists. EGC-France

Hospices Civils de Lyon

Adjuvants, Anesthesia

Antiemetics

Gastrointestinal Agents

All Drugs and Chemicals

Scopolamine

Butylscopolammonium Bromide

Participants were placed on a CT table and a small flexible rectal catheter was positioned. N-butyl-scopolamine was administered intravenously if this was common practice in the participating center. Immediately before scanning, pneumocolon was obtained through insufflation of room air or carbon dioxide, either manually by means of a balloon pump or with an automatic device, until maximum tolerance was reached. CT colonography was performed with the participant in supine and prone positions with the following scanning protocol: 120 kilovolt peak (kVp), 50 or fewer effective mA per second, and a section thickness not greater than 1.25 mm.

CT colonography

Colonoscopy was performed at least 3 hours after CT colonography. The endoscope was advanced to the cecum and the entire length of the bowel was examined during endoscope withdrawal. The endoscopist was initially blinded to the result of CT colonography; at the end of each bowel segment evaluation, CT colonography results for that segment were disclosed (segmental unblinding). If a lesion measuring 6 mm or larger was detected at CT colonography but not at colonoscopy, the segment was reexamined to resolve the discrepancy

colonoscopy

Each CT colonography study was read in two phases. In the first phase the radiologist interpreted the examination without activating the CAD algorithm. This phase of reporting was defined as unassisted reading. Then the radiologist activated the CAD algorithm which pinpointed a series of colorectal lesion-like structures (i.e. lesion candidates) on both the prone and supine acquisition. All lesion candidates were examined. The second phase of reporting was defined as CAD-assisted reading.

CT Colonography with computer assisted diagnosis (CAD),CADCOLON -im3D SpA., Torino Italy

Daniele Regge

RATIONALE: CT colonography accurately detects large polyps and masses. However, the test is less accurate in identifying lesions between 6 and 9 mm.Use of computer-aided detection (CAD) has shown promising results in providing uniform accuracy and improving CT colonography sensitivity.

PURPOSE:This clinical trial compared the performance of CT colonography with unassisted and CAD-assisted reading in detecting patients with colorectal lesions.

Design: multicenter, cross-sectional study. Each participant underwent CT colonography and colonoscopy on the same day. Expert readers interpreted CT colonography unassisted and then reviewed all colorectal lesion-like structures pinpointed by the CAD algorithm.

Impact of Computer-Aided Detection (CAD) as Second Reader in CT Colonography

Measure of Performances of CT Colonography With Computer-Aided Detection (CAD) as Second Reader in Detecting Colorectal Lesion

Candiolo Cancer Institute - IRCCS

Bicocca Universiy of Milano, Milan, Italy

Fondazione Salvatore Maugeri

Catholic University, Italy

Valduce Hospital

University of Turin, Italy

University of Roma La Sapienza

IRCCS Azienda Ospedaliero-Universitaria di Bologna

Nuovo Regina Margherita Hospital

University of Pisa

University of Florence

IRCCS Azienda Ospedaliera Universitaria San Martino - IST Istituto Nazionale per la Ricerca sul Cancro, Genoa, Italy

im3D S.p.A.

Respiratory Tract (Lung and Bronchial) Diseases

Heart and Blood Diseases

Skin and Connective Tissue Diseases

Blood and Lymph Conditions

Immune System Diseases

Symptoms and General Pathology

Substance Related Disorders

Wounds and Injuries

Lung Neoplasms

Coronary Artery Disease

Carcinoma

Breast Neoplasms

Lymphoma

Heart Diseases

Cardiotoxicity

Coronary Disease

Myocardial Ischemia

Arteriosclerosis

Carcinoma, Intraductal, Noninfiltrating

Ischemia

Neoplasms by Histologic Type

Neoplasms, Glandular and Epithelial

Arterial Occlusive Diseases

Vascular Diseases

Drug-Related Side Effects and Adverse Reactions

Chemically-Induced Disorders

Radiation Injuries

Adenocarcinoma

Carcinoma in Situ

Breast Carcinoma In Situ

Lymphosarcoma

Bone Density Conservation Agents

Calcium

Calcium, Dietary

Patients who had received radiotherapy will be sub-stratified into those who received treatment to the left or right breast.

Patients who did not receive radiation treatment, but received chemotherapy, hormonal therapy, and/or surgery will be used as study controls to compare the prevalence and burden of cardiac disease as compared to radiation patients.

Lucille Lee, MD

Lindsay L Puckett, MD

CAROLE seeks to evaluate the relationship between chest Radiation Therapy and coronary artery disease.

The purpose of CAROLE is to check the heart health of women who received breast cancer treatments in the past and protect them from future heart disease.

Background: Within the United States, there are an estimated 3.1 million women alive who have been diagnosed with invasive breast cancer, and approximately 56% of them have received radiation. Worldwide, there are 1.4 million diagnosed annually and, in 2012, it was the most commonly diagnosed cancer in women. As patients continue to live longer, cardiac dose-related toxicity has become an issue which impacts millions globally. Guidelines are sorely needed for this large at-risk population of women.

Purpose: Radiation therapy to the chest has known cardiac late effects including coronary artery disease, fibrosis, and valvular dysfunction. Unfortunately, there is no clear evidence on which radiation doses to cardiac structures cause these late toxicities. As a result, these effects are often under-recognized until after patients have become symptomatic. More than half of breast cancer patients are treated with radiation, and many receive incidental cardiac irradiation. Many of these women also receive systemic therapy which may pose additional cardiac risks. The investigators data will help to establish baseline rates of pre-clinical and clinical disease, which can be used to inform preventative guidelines that are critically needed in this at-risk population. Additionally, the investigators data will provide a better definition of the radiation dose-relationship associated with cardiac toxicity so that it will be possible to predict more accurately who is at elevated risk for iatrogenic cardiac disease.

Research Plan: This study will identify and evaluate 200 breast cancer patients treated at the investigators institution (\>6 years prior) who are at risk for treatment-related cardiac toxicity. All patients enrolled in the study will receive echocardiograms (echo), electrocardiograms (EKGs), and coronary calcium (CAC) CT scans in order to comprehensively evaluate for pre-clinical and clinical cardiac disease. Patients identified as having cardiac disease during testing will be offered referral to a cardiologist. Patients who received non-radiation treatments (chemotherapy, hormonal therapy, and/or surgery) will be compared to radiated patients to establish baseline rates of preclinical and clinical disease. Patients who received cardiotoxic systemic therapy (doxorubicin, trastuzumab, etc.) will also be evaluated in subgroup analysis. Among radiation patients, this study proposes a novel method of risk assessment, which is, to utilize a patient's stored treatment plan (from 2004-2011) and fuse it with patients current cardiac imaging to delineate an accurate dose relationship associated with clinical and pre-clinical disease. This is further described in the specific aims below:

Specific Aim 1: Identify baseline levels of clinical and pre-clinical disease in breast cancer patients.

Aim 1.1: Delineate the group of patients diagnosed and treated for breast cancer between 2004-2011, enroll health system patients with recent follow up (within 3 years).

Aim 1.2: Perform non-invasive cardiac testing (EKG, echo, CAC CT scans). Aim 1.3: Establish rates of pre-clinical and clinical disease based on pre-determined criteria.

Specific Aim 2: Create an accurate dosimetric assessment of dose to cardiac structures.

Aim 1.1: Among study patients who received radiation treatment for breast cancer, obtain stored planning CT simulation scans.

Aim 1.2: Upload CT simulation scans with dosimetric information and delineate cardiac structures at risk in order to ensure accurate and reproducible target delineation.

Aim 1.3: Fuse the CAC CT scan with the CT simulation scan to accurately assess for dose correlation between coronary calcium with the dose received.

Aim 1.4: Create a dose-relationship model for the heart and cardiac structures.

Specific Aim 3: Incorporate dosimetric cardiac risk information into the investigators institution's clinical practice, publish data, and establish updated cardiac guidelines for women who have received radiation for breast cancer.

The long-term goal of the project is to elucidate specific treatment and radiation dose-related risks, which will then be used to inform follow-up recommendations and guidelines. This project will impact the way investigators describe expected cardiac risk to patients, the way the investigators recommend follow up care, and potentially, the way the investigators prescribe treatment. At present, all patients receiving radiation for breast cancer are informed that there is a risk of cardiac late effects, however, no specific cardiac imaging or intervention is recommended other than routine medical follow up. There is little distinction given to the side of the cancer, a patient's individual anatomy, or the projected dose to the anterior heart and cardiac structures. This project will allow physicians to provide a more accurate risk profile regarding future risk of cardiac morbidity. If the study reveals a very high rate of pre-clinical atherosclerotic disease, it also may prompt more routine CAC CT screening.

The CAROLE (CArdiac Related Oncologic Late Effects) Study

Sub-analysis for association of specific oncologic treatment(s) with cardiac disease (as per previously described study templates) will also be performed on patients who received multimodality treatment (RT+ chemotherapy, RT + hormonal treatment, RT+ chemo and hormonal treatment, RT + individual cardio toxic chemotherapies \[anthracycline, trastuzumab, etc.\]) and on different surgical approaches (lumpectomy and mastectomy). Results will be reported as a single value for each arm/group.

Assess whether radiation to the heart is associated with increased pre-clinical and clinical cardiac disease (as determined by a composite of multimodality cardiology assessments including EKG.

Studies will be read using a standard, evidence based, set of criterion and documented using study templates) and compared to patients who did not receive radiation to the heart.

All cardiac tests will be reviewed and reported as a composite with one the following; No evidence of disease/unrelated, preclinical disease, or clinical disease (non-numerically) based on the Cardiologists read of the study based on standard Pre-Specified criteria.

Assess whether radiation to the heart is associated with increased pre-clinical and clinical cardiac disease (as determined by a composite of multimodality cardiology assessments including Echocardiogram with Strain.

All cardiac tests will be reviewed and reported as a composite with one the following; No evidence of disease/unrelated, preclinical disease, or clinical disease (non-numerically) based on the Cardiologists read of the study based on standard Pre-Specified criteria.

Assess whether radiation to the heart is associated with increased pre-clinical and clinical cardiac disease (as determined by a composite of multimodality cardiology assessments including Coronary Artery Calcium (CAC) CT.

All cardiac tests will be reviewed and reported as a composite with one the following; No evidence of disease/unrelated, preclinical disease, or clinical disease (non-numerically) based on the Cardiologists read of the study based on standard Pre-Specified criteria.

Individual cardiac structures will be accessed using Agatston score. Agatston score is calculated using a CAC CT scan to measure for the presence of coronary artery disease based on the extent of coronary artery calcification. Specifically the left main, left anterior descending, left circumflex, and right coronary arteries are all read individually and the sum of these cardiac vessels scores is read as the overall Agatston score.

Grading of coronary artery disease (based on total calcium score) measure is without units. Score categories are as follows: No evidence of disease/unrelated, preclinical disease, or clinical disease (non-numerically). Higher Agatston score correlates with more coronary artery disease.

The assessment of calcium (Agatston score) on CAC CT will be compared to the dose received by the specified vessel as determined using deformable registration with prior radiation imaging (simulation CT scan).

Northwell Health

Principal Investigator

Multiple Myeloma

Neoplasms, Plasma Cell

Hemostatic Disorders

Blood Coagulation Disorders

Paraproteinemias

Blood Protein Disorders

Hematologic Diseases

Hemorrhagic Disorders

Lymphoproliferative Disorders

Immunoproliferative Disorders

Anti-Infective Agents

Antineoplastic Agents

Anti-Inflammatory Agents

Antirheumatic Agents

Pharmaceutical Solutions

Thalidomide

Dexamethasone

Etoposide

Cytarabine

Cyclophosphamide

Doxorubicin

Liposomal doxorubicin

Vincristine

Melphalan

Cisplatin

Lenograstim

Dexamethasone acetate

Etoposide phosphate

Carmustine

Interferons

Interferon-alpha

Interferon alpha-2

Tobramycin, Dexamethasone Drug Combination

Immunosuppressive Agents

Immunologic Factors

Antineoplastic Agents, Alkylating

Alkylating Agents

Glucocorticoids

Hormones

Hormone Antagonists

Antineoplastic Agents, Hormonal

Anti-Bacterial Agents

Antibiotics, Antitubercular

Enzyme Inhibitors

Antiviral Agents

Antimetabolites

Tubulin Modulators

Antimitotic Agents

Angiogenesis Inhibitors

Growth Inhibitors

Thalidomide 400 qod during induction.100 mg qd between transplants, post transplant pat. 200 mg qd. During year one of maintenance therapy pt will take 100mg of Thal qod and 50 mg of thal qod during second year of maintenance

During induction, consolidation, and maintenance steps patient receives no thalidamide

All patients will be randomly assigned to receive thalidomide 400 mg as an oral, once daily dose throughout induction and 100mg between transplants after platelets are greater than 50,000μl and 200 mg post transplant consolidation, and a reduced dose of 100 mg on alternating days during the first year of maintenance and 50 mg qod thereafter versus no thalidomide. Thalidomide will be held during conditioning, transplant procedure, and recovery following transplant. It may be resumed once plateletrecovery is complete after each transplant

Cytarabine (Ara-C) 400 mg/m2 in 250 ml D5W over one hour daily for four days (on days -5, -4, -3, -2).

Start infusion 30 minutes after completion of BCNU on day -5.

Ara-C

Carmustine (BCNU) 300 mg/m2 in 1 liter of D5W in glass bottle (protect from light) to infuse over 2 hours on day -5. Check blood pressure every 15 minutes during infusion and 30 minutes after completion

BCNU

Cisplatin\* 15 mg/m2/day Continuous infusion 1-4 (DCEP CYCLE 2) Cisplatin\* 7.5 mg/m2 Continuous infusion 1-4 (DPACE cycle)

\*Cisplatin doses will be modified for renal insufficiency as follows: Cisplatin dose Creatinine 15 mg/m2 (full dose) \< 1.5 mg/dl 10 mg/m2 1.6 - 2.0 mg/dl 7.5 mg/m2 2.1 - 3.0 mg/dl 0 mg (hold Cisplatin) \> 3.0 mg/dl

Cycle 2 - DCEP Cyclophosphamide 400 mg/m2/day Continuous infusion 1-4 Cycle 3 - CAD and PBSC Collection #1 Cyclophosphamide 750 mg/m2/day Continuous infusion 1-4 Cycle 4 - DCEP Cyclophosphamide 400 mg/m2/day Continuous infusion 1-4 Cytoxan/VP-16 and PBSC Collection-Cyclophosphamide 2 grams/m2 (Total dose 4 gm/m2) IV by CI 1 and 2 Post-Transplant Consolidation-Cyclophosphamide 300 mg/m2 Continuous infusion 1-4

Cytoxan

Induction cycle 1 VAD Dexamethasone 40 mg/day PO 1-4, 9-12, 17-20 Cycle 2 - DCEP Dexamethasone 40 mg/day PO 1-4 Cycle 3 - CAD and PBSC Collection #1 Dexamethasone 40 mg/day PO 1-4 Cycle 4 - DCEP and PBSC Collection #2 Dexamethasone 40 mg/day PO 1-4 Post-Transplant Consolidation Dexamethasone 40 mg PO 1-4 Dexamethasone Consolidation Patients that do not achieve adequate platelet recovery (defined as \< 80,000/μl) will receive consolidation with Dexamethasone 40 mg x 4 days every 28 days for 1 year Maintenance year one Dexamethasone 40 mg PO q 3 months, day 1-4, 9-12, 17-20

Doxorubicin may be further diluted in 5% dextrose or sodium chloride injection and should be administered slowly into tubing of a freely flowing intravenous infusion with great care taken to avoid extravasation.

Etoposide (VP16) 200 mg/m2 in 500 ml D5W over one hour daily for four days (on days -5, -4, -3, -2). Start infusion 30 minutes after completion of BCNU on day -5. Start infusion at completion of cytarabine on following three days

G-CSF will be administered at a dose of 10mcg/kg or GM-CSF at a dose of 10 mcg/kg. G-CSF or GM-CSF will begin one day after completion of chemotherapy and continued during repeated apheresis and discontinued upon completion of apheresis.

Filgrastim

GM-CSF at a dose of 10 μg/kg SC, divided in 2 doses each day, will begin one day after completion of chemotherapy and continued during repeated apheresis and discontinued upon completion of apheresis.

Recombinant GM-CSF

AGENT DOSE ROUTE DAYS Intron-A 3 million units/m2 SQ TIW Thalidomide (for those randomized at initial registration) 50 mg QOD PO Every other day (qod

Interferon-alpha-2b

Formulation: 1 mg/1 ml, 2 mg/2 ml, and 5 mg/ 5 ml vials. Vincristine should be administered intravenously through a freely-running IV. If it extravasates, it produces a severe local reaction with skin slough. FATAL IF GIVEN INTRATHECALLY, FOR INTRAVENOUS USE ONLY.

Bart Barlogie, M.D., Ph.D.

This study has been designed to evaluate whether "anti-angiogenesis" therapy with thalidomide and whether additional chemotherapy after transplant will be beneficial. Another objective is to find out what kinds of side effects occur with this combination of treatment and how often they occur.

Treatment will be given in 4 phases or steps: Induction, Transplant 1 and 2, Consolidation, and maintenance. Induction is designed to induce (or bring about) myeloma into remission. Each patient enrolled on this study will be randomly assigned to receive the above treatment alone or in combination with a drug called thalidomide. Some patients may be eligible to receive the transplant as an outpatient, based on general health and other factors.After recovery from the transplant phase of the study (approximately 6 weeks), patients originally assigned to thalidomide will resume taking it and will continue taking it throughout the rest of the study treatment. All patients will receive post-transplant consolidation treatment, which in earlier studies has been found to be helpful in maintaining patients response after transplant. Therefore, all patients will receive a combination of drugs called "D PACE" which consists of Dexamethasone, Cis-Platinum, Adriamycin, Cyclophosphamide, and Etoposide. If you are also taking thalidomide, you will continue taking it throughout, and the treatment is called "DT PACE" to include the thalidomide. No sooner than 4 weeks, and no later than 12 weeks after consolidation and if your myeloma remains in remission after consolidation therapy is complete, you will begin the last phase of the study, which is maintenance. Maintenance is designed to keep your myeloma in remission long-term.

UARK 98-026 TT II: Multiple Myeloma Evaluating Anti-Angiogenesis With Thalidomide and Post-Transplant Consolidation Chemotherapy

UARK 98-026, Total Therapy II - A Phase III Study for Newly Diagnosed Multiple Myeloma Evaluating Anti-Angiogenesis With Thalidomide and Post-Transplant Consolidation Chemotherapy

Overall Survival at six years after initiating protocol therapy

Celgene Corporation

University of Arkansas

Thalidomide 400 QD during induction, 100 mg QD between transplants, 200 mg QD post transplant, 100 mg QD during year one of maintenance, and 50 mg QD during second year of maintenance.

Patient received no thalidomide during induction, consolidation, and maintenance therapy.

No Thalidomide

Total

>/= 60 to < 65 years

>/= 65 years

< 60 years

Age, Customized

Sex: Female, Male

Bart Barlogie

Overall Survival

Overall Study

Adenoma

Every patient referred to our center for colorectal endoscopy for investigation and/or resection of colorectal lesion can join the cohort of this study and will benefit from diagnosis and treatment by experienced endoscopists.

Evaluation of the proportion of colorectal lesions detected by a computer-aided detection system (CADe) compared with experienced endoscopists.

proportion of colorectal lesions

The development of artificial intelligence (AI) systems in the field of colorectal endoscopy is currently booming, colorectal cancer being, by its frequency and severity, a real public health problem.

In terms of image analysis, AI is indeed able to perform many tasks simultaneously (lesion detection, classification, and segmentation) and to combine them.

Lesion detection is thus the starting point of the whole chain to choose at the end the most appropriate treatment for the patient. Large-scale studies have demonstrated the superiority of artificial intelligence-assisted detection over the usual detection by gastroenterologists, mainly for the detection of sub-centimeter polyps.

However, the investigators have shown that a recent computer-aided detection system (CADe) such as the ENDO-AID software in combination with the EVIS X1 video column (Olympus, Tokyo, Japan) may present difficulties in the detection of flat lesions such as sessile serrated lesions (SSLs) and non-granular laterally spreading tumors (LST-NGs).

This represents a major challenge because in addition to their shape being difficult to identify for the human eye in practice and where AI assistance would be of great value, these rare lesions are associated with advanced histology.

In addition, the investigators recently described the case of a worrisome false negative of AI-assisted colonoscopy, which failed to detect a flat adenocarcinoma in the transverse colon.

Therefore, it is important to measure the false negative rate of AI detection based on the macroscopic shape of the lesion. Comparing this rate to the human endoscopist's false negatives would improve the performance of AI for this specific lesion subtype in the future.

Comparison of Flat Colorectal Lesion Detection by Artificial Intelligence-assisted Colonoscopy Versus Endoscopists

Comparison of Flat Colorectal Lesion Detection by Artificial Intelligence-assisted Colonoscopy Versus Endoscopists: AIChallenge - Medtronic

Evaluation of the proportion of colorectal lesions detected by a computer-aided detection system (CADe) compared with experienced endoscopists and correlation with final histology reading.

Study title	NCT ID	Conditions	Interventions	Eligibility	Organization
Evaluation of a Computer-aided Diagnosis System (CADx) in the Early Detection of Gastric Cancer in France. Cancer in France.	NCT05928819	Gastric Cancer	Evaluation of t...	18 Years -	Hospices Civils de Lyon
Impact of Computer-Aided Detection (CAD) as Second Reader in CT Colonography	NCT01399710	Individuals Wit...	CT colonography colonoscopy CT Colonography...	18 Years -	im3D S.p.A.
The CAROLE (CArdiac Related Oncologic Late Effects) Study	NCT03235427	Coronary Artery... Cardiac Disease Cardiac Toxicit... Radiation Radiation Thera... Atherosclerotic... Cardiotoxicity Breast Cancer Lung Cancer Lymphoma Cancer Carcinoma, Intr...		26 Years - 78 Years	Northwell Health
UARK 98-026 TT II: Multiple Myeloma Evaluating Anti-Angiogenesis With Thalidomide and Post-Transplant Consolidation Chemotherapy	NCT00083551	Multiple Myelom...	Thalidomide Ara-C BCNU Cisplatin Cytoxan Dexamethasone Doxorubicin Etoposide Filgrastim Recombinant GM-... Interferon-alph... Melphalan Vincristine	18 Years - 75 Years	University of Arkansas
Comparison of Flat Colorectal Lesion Detection by Artificial Intelligence-assisted Colonoscopy Versus Endoscopists	NCT05942677	Flat Colorectal...	proportion of c...	18 Years -	Hospices Civils de Lyon

Spots Global Cancer Trial Database for cad

Every month we try and update this database with for cad cancer trials from around the world to help patients and their families find trials that might be right for them.
We offer this 100% free of charge and do not endorse any of the trials listed here, we hope it helps you or a loved one.

Spots Global Cancer Trial Database for cad

Every month we try and update this database with for cad cancer trials from around the world to help patients and their families find trials that might be right for them. We offer this 100% free of charge and do not endorse any of the trials listed here, we hope it helps you or a loved one.

Every month we try and update this database with for cad cancer trials from around the world to help patients and their families find trials that might be right for them.
We offer this 100% free of charge and do not endorse any of the trials listed here, we hope it helps you or a loved one.