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Esophageal Cancer - Epidemiology Forecast - 2034

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    Report

  • 122 Pages
  • February 2024
  • Region: Global
  • DelveInsight
  • ID: 5524674
UP TO OFF until Dec 31st 2024

Key Highlights

  • In the 7MM, the highest prevalent cases of Hemophilia A were in the United States, accounting for nearly 14,300 cases in 2023.
  • In Japan, the total prevalent population of Hemophilia A is nearly 5,600 in 2023 and is anticipated to rise during the forecast period.
  • In the US, Hemophilia A contributed nearly 80% of overall Hemophilia.
  • In 2023, the prevalent cases of mild Hemophilia A in the United States were identified to be 3,600, moderate as 2,900, and severe as 7,900.
  • In the US, the prevalent cases of Hemophilia A were highest among the age group 19-44 years, and the least were between 0 and 4 years in 2023.
The analyst's‘Hemophilia A - Epidemiology Forecast - 2034’ report delivers an in-depth understanding of the disease, historical and forecasted epidemiology in the United States, EU4 (Germany, France, Italy, and Spain) and the United Kingdom, and Japan.

Geography Covered

  • The United States
  • EU4 (Germany, France, Italy, and Spain) and the United Kingdom
  • Japan

Study Period: 2020-2034

Hemophilia A Disease Understanding

Hemophilia A Overview

Hemophilia A is a genetic bleeding disorder in which an individual lacks or has low levels of proteins named clotting factor VIII. The mainstay treatment option has long been FVIII replacement therapy. Initially, FVIII replacement was accomplished by donating whole blood, subsequently by plasma, and currently by recombinant human FVIII (rFVIII) replacement therapies, which revolutionized the treatment of Hemophilia A. Although hemophilia is usually diagnosed at birth, the disorder can also be acquired later in life if the body begins to produce antibodies that attack and destroy clotting factors. However, this acquired type of hemophilia is very rare.

Hemophilia A Diagnosis

The symptoms of Hemophilia A can vary greatly from one person to another; it ranges from mild to moderate to severe. The age of onset and frequency of bleeding episodes depend upon the amount of factor VIII protein and the overall clotting ability of the blood. In most individuals, regardless of severity, bleeding episodes tend to be more frequent in childhood and adolescence than in adulthood.

Additionally, the diagnosis of Hemophilia A depends on the identification of characteristic symptoms, a detailed patient history, a thorough clinical evaluation, and a variety of specialized laboratory tests. The identification of a hemizygous F8 pathogenic variant on molecular genetic testing in a male proband confirms the diagnosis.

Hemophilia A Epidemiology

The disease epidemiology covered in the report provides historical as well as forecasted epidemiology segmented by total prevalent cases of Hemophilia A, age-specific prevalent cases of Hemophilia A, severity-specific prevalent cases of Hemophilia A, prevalent cases of Hemophilia A with or without Inhibitors and treated pool of Hemophilia A in the 7MM market covering the United States, EU4 (Germany, France, Italy, and Spain) and the UK, and Japan from 2020 to 2034.
  • The total prevalent population of Hemophilia A in the 7MM comprised 45,500 cases in 2023 and is projected to increase during the forecast period.
  • The total prevalent population of Hemophilia A in the United States is ~14,300 in 2023.
  • The United States contributed to the largest prevalent population of Hemophilia A, accounting for ~30% of the 7MM in 2023.
  • In EU4 and the UK, the diagnosed prevalence of Hemophilia A was found to be maximum in France, followed by the UK. While the least number of cases were found in Spain in 2023.
  • In Japan, the total prevalent population of Hemophilia A was ~5,600 in 2023 and is anticipated to rise during the forecast period.
  • In 2023, the prevalent cases of mild Hemophilia A in the United States were identified to be ~3,600, moderate as ~2,900, and severe as ~7,900.
  • In the US, ~2,400 cases accounted for inhibitors and ~12,000 cases for non-inhibitor in 2023.

Scope of the Report

  • The report covers a segment of an executive summary and descriptive overview of Hemophilia A, explaining its causes, signs and symptoms, pathogenesis, and diagnostic approaches.
  • Comprehensive insight has been provided into the epidemiology segments and forecasts, the future growth potential of diagnosis rate, and disease progression.
  • A detailed review of the Hemophilia A epidemiology, detailed assumptions, and rationale behind our approach is included in the report.
  • A detailed review of current challenges in establishing the diagnosis.

Report Insights

  • Patient Population
  • Country-wise Epidemiology Distribution

Report Key Strengths

  • 11 Year Forecast
  • 7MM Coverage
  • Hemophilia A Epidemiology Segmentation

Report Assessment

  • Epidemiology Segmentation
  • Current Diagnostic Practices

Key Questions

  • What are the disease risk, burden, and unmet needs of Hemophilia A? What will be the growth opportunities across the 7MM with respect to the patient population pertaining to Hemophilia A?
  • What is the historical Hemophilia A patient pool in the United States, EU4 (Germany, France, Italy, Spain) and the United Kingdom, and Japan?
  • What would be the forecasted patient pool of Hemophilia A at the 7MM level?
  • Out of the above-mentioned countries, which country would have the highest prevalent population of Hemophilia A during the study period (2020-2034)?
  • At what CAGR is the population expected to grow across the 7MM during the study period (2020-2034)?

Reasons to buy

  • The report will help in developing business strategies by understanding trends shaping and driving the Hemophilia A market.
  • To understand the future market competition in the Hemophilia A market and an insightful review of the key market drivers and barriers.
  • Quantify patient populations in the global Hemophilia A market to improve product design, pricing, and launch plans.
  • Organize sales and marketing efforts by identifying the best opportunities for Hemophilia A in the US, EU4 (Germany, France, Italy, Spain) and the United Kingdom, and Japan.
  • The Hemophilia A Epidemiology Model is easy to navigate, interactive with dashboards, and epidemiology-based with transparent and consistent methodologies. Moreover, the model supports data presented in the report and highlights disease trends over an 11-year forecast period using reputable sources.

Table of Contents

1. Key Insights2. Report Introduction
3. Esophageal Cancer Market Overview at a Glance
3.1. Patient Share (%) Distribution of Esophageal Cancer in 2020
3.2. Patient Share (%) Distribution of Esophageal Cancer in 2034
4. Executive Summary of Esophageal Cancer
5. Disease Background and Overview
5.1. Introduction
5.2. Histological Classification of Esophageal Cancer
5.3. Stage-Wise Classification of Esophageal Cancer
5.4. Causes of Esophageal Cancer
5.5. Risk Factors of Esophageal Cancer
5.6. Signs and Symptoms of Esophageal Cancer
5.7. Major Mutations in Esophageal Cancer
5.8. Molecular Abnormalities of Eac
5.9. Molecular Abnormalities of Escc
5.10. Diagnosis
5.11. Imaging Tests for Esophageal Cancer
5.12. Diagnostic Algorithm
5.13. Endoscopy for Cancer of the Esophagus
5.14. Biopsy and Lab Tests for Cancer of the Esophagus
5.15. Blood Tests
5.16. Differential Diagnosis
5.17. Diagnostic Guidelines
5.17.1. Esmo Clinical Practice Guideline for Diagnosis (2022)
5.17.2. National Guidelines for the Diagnosis of Esophageal Carcinoma 2022 in China
5.17.3. Nccn Guidelines for Esophageal Cancer (2022)
6. Epidemiology Methodology
7. Epidemiology and Patient Population
7.1. Key Findings
7.2. Assumptions and Rationale: 7MM
7.3. Total Diagnosed Incident Cases of Esophageal Cancer in the 7MM
7.4. Epidemiology Scenario in the United States
7.4.1. Total Diagnosed Incident Cases of Esophageal Cancer in the US
7.4.2. Age-Specific Cases of Esophageal Cancer in the US
7.4.3. Histology-Specific Cases of Esophageal Cancer in the US
7.4.4. Gender-Specific Cases of Esophageal Cancer in the US
7.4.5. Mutation-Specific Cases of Esophageal Cancer in the US
7.4.6. Stage-Specific Cases of Esophageal Cancer in the US
7.4.7. Linewise Treated Cases of Esophageal Cancer in the US
7.5. Epidemiology Scenario in EU4 and the UK
7.5.1. Total Diagnosed Incident Cases of Esophageal Cancer in EU4 and the UK
7.5.2. Age-Specific Cases of Esophageal Cancer in EU4 and the UK
7.5.3. Histology-Specific Cases of Esophageal Cancer in EU4 and the UK
7.5.4. Gender-Specific Cases of Esophageal Cancer in EU4 and the UK
7.5.5. Mutation-Specific Cases of Esophageal Cancer in EU4 and the UK
7.5.6. Total Stage-Specific Cases of Esophageal Cancer in EU4 and the UK
7.5.7. Linewise Treated Cases of Esophageal Cancer in EU4 and the UK
7.6. Epidemiology Scenario in Japan
7.6.1. Total Diagnosed Incident Cases of Esophageal Cancer in Japan
7.6.2. Age-Specific Cases of Esophageal Cancer in Japan
7.6.3. Histology-Specific Cases of Esophageal Cancer in Japan
7.6.4. Gender-Specific Cases of Esophageal Cancer in Japan
7.6.5. Mutation-Specific Cases of Esophageal Cancer in Japan
7.6.6. Stage-Specific Cases of Esophageal Cancer in Japan
7.6.7. Linewise Treated Cases of Esophageal Cancer in Japan
8. Appendix
8.1. Bibliography
8.2. Report Methodology
9. Publisher Capabilities10. Disclaimer
List of Tables
Table 1: Summary of Esophageal Cancer Epidemiology (2020-2034)
Table 2: Key Events
Table 3: AJCC Staging of Esophageal Cancer
Table 4: Total Diagnosed Incident Cases of Esophageal Cancer in the 7MM (2020-2034)
Table 5: Total Diagnosed Incident Cases of Esophageal Cancer in the US (2020-2034)
Table 6: Age-specific Cases of Esophageal Cancer in the US (2020-2034)
Table 7: Histology-specific Cases of Esophageal Cancer in the US (2020-2034)
Table 8: Gender-specific Cases of Esophageal Cancer in the US (2020-2034)
Table 9: Mutation-specific Cases of Esophageal Cancer in the US (2020-2034)
Table 10: Stage-specific Cases of Esophageal Cancer in the US (2020-2034)
Table 11: Linewise Treated Cases of Esophageal Cancer in the US (2020-2034)
Table 12: Total Diagnosed Incident Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 13: Age-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 14: Histology-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 15: Gender-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 16: Mutation-specific cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 17: Total Stage-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 18: Linewise Treated Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Table 19: Total Diagnosed Incident Cases of Esophageal Cancer in Japan (2020-2034)
Table 20: Age-specific Cases of Esophageal Cancer in Japan (2020-2034)
Table 21: Histology-specific Cases of Esophageal Cancer in Japan (2020-2034)
Table 22: Gender-specific Cases of Esophageal Cancer in Japan (2020-2034)
Table 23: Mutation-specific Cases of Esophageal Cancer in Japan (2020-2034)
Table 24: Stage-specific Cases of Esophageal Cancer in Japan (2020-2034)
Table 25: Linewise Treated Cases of Esophageal Cancer in Japan (2020-2034)
List of Figures
Figure 1: Understanding Gastroesophageal Reflux Induced Esophageal Tumorigenesis
Figure 2: Predominant Types of Primary Esophageal Cancers
Figure 3: Staging of Esophageal Cancer
Figure 4: The Risk Factors Profiles for Esophageal Squamous Cell Carcinoma and Esophageal Adenocarcinoma
Figure 5: Esophageal Cancer Warning Signs
Figure 6: Top Alterations in Esophageal Squamous Cell Carcinoma
Figure 7: Esophageal Cancer (Upper Endoscopy)
Figure 8: Algorithm for the Symptoms Suggestive of Esophageal Cancer
Figure 9: Imaging Differential Diagnosis
Figure 10: Esophagectomy
Figure 11: Total Diagnosed Incident Cases of Esophageal Cancer in the 7MM (2020-2034)
Figure 12: Total Diagnosed Incident Cases of Esophageal Cancer in the US (2020-2034)
Figure 13: Age-specific Cases of Esophageal Cancer in the US (2020-2034)
Figure 14: Histology-specific Cases of Esophageal Cancer in the US (2020-2034)
Figure 15: Gender-specific Cases of Esophageal Cancer in the US (2020-2034)
Figure 16: Mutation-specific Cases of Esophageal Cancer in the US (2020-2034)
Figure 17: Stage-specific Cases of Esophageal Cancer in the US (2020-2034)
Figure 18: Linewise Treated Cases of Esophageal Cancer in the US (2020-2034)
Figure 19: Total Diagnosed Incident Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 20: Age-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 21: Histology-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 22: Gender-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 23: Mutation-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 24: Total Stage-specific Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 25: Linewise Treated Cases of Esophageal Cancer in EU4 and the UK (2020-2034)
Figure 26: Total Diagnosed Incident Cases of Esophageal Cancer in Japan (2020-2034)
Figure 27: Age-specific Cases of Esophageal Cancer in Japan (2020-2034)
Figure 28: Histology-specific Cases of Esophageal Cancer in Japan (2020-2034)
Figure 29: Gender-specific Cases of Esophageal Cancer in Japan (2020-2034)
Figure 30: Mutation-specific Cases of Esophageal Cancer in Japan (2020-2034)
Figure 31: Stage-specific Cases of Esophageal Cancer in Japan (2020-2034)
Figure 32: Linewise Treated cases of Esophageal Cancer in Japan (2020-2034)