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Healthcare industry
A broad sector encompassing businesses and services that support people’s health,
including disease prevention, diagnosis, treatment, nursing care, and health promotion
New initiatives balancing medical quality and global environment

The healthcare industry is expanding rapidly as transformation across medical and health‑related businesses accelerates. The spread of COVID‑19 reshaped people’s behavior and further propelled structural changes that were already underway.

The expansion of digital health has become a central trend. Telemedicine is now well established, mobile health solutions such as wearable monitoring devices are becoming commonplace, and AI‑assisted diagnostics are helping reduce the burden on physicians while improving accuracy. Personalized medicine, tailored to individual patients using genetic information, is also advancing in clinical practice. Interest in pandemic preparedness remains high, and global collaboration frameworks led by the WHO continue to evolve. The number of healthcare and technology‑focused startups is rising quickly, and companies from other industries are increasingly entering the field, underscoring the growing importance of this sector.

At the same time, environmental challenges within the healthcare industry are becoming more serious, just as in other industries. Sustainable healthcare aims to maintain high‑quality medical services while minimizing environmental impact. Initiatives such as green hospitals, sustainable procurement, and responsible equipment use are gaining momentum as the industry works to balance medical quality with environmental responsibility.

Environmental issues in the healthcare industry
  • Increasing greenhouse gas emissions
    Major sources of emissions include the energy consumed by medical facilities and the development and manufacturing of pharmaceuticals and medical devices, which require numerous experiments and prototypes
  • Increasing medical waste and disposal issues
    The large‑scale use of disposable instruments and packaging contributes to growing volumes of waste, and the disposal of masks, gloves, and other items has surged since the COVID‑19 pandemic
  • Water pollution from pharmaceuticals
    Unused or unmetabolized pharmaceuticals discharged from hospitals and households can remain in water systems, creating concerns about their impact on aquatic ecosystems
  • Environmental impact of supply chains
    Greenhouse gases are emitted through the global transportation of medical devices, pharmaceuticals, and consumables. Cold‑chain logistics for the pharmaceutical and biotechnology sectors are especially energy‑intensive, adding further environmental burden
  • Improving resource efficiency is an urgent priority
    There is a pressing need to introduce reusable medical devices and energy‑efficient medical equipment, develop products designed for modular replacement, and promote the recycling of materials
Do you face these challenges or requirements?
  • Are there solutions that can ensure product safety while also reducing environmental impact?
  • Are there efficient management methods for complying with environmental standards?
  • Developing pharmaceuticals and new materials requires numerous experiments and prototypes, resulting in significant environmental impact. Improvement in these processes is urgently needed
  • Personalized medicine is advancing in areas such as cancer and rare‑disease treatment, but genetic analysis testing remains time‑consuming. We are looking for suggestions to accelerate and streamline this process
Hitachi High-Tech is a strong partner for customers facing these types of challenges
Hitachi High-Tech’s approach to the Healthcare industry
Supporting Rapid Decision-Making in Clinical Settings
Solved IssuesNature Positive
Rapid Response to Health Risks
  • By detecting lesions previously difficult to identify, it enables early disease detection, accurate diagnosis, and analysis of antibiotic Sensitivity, supporting rapid decision-making in clinical settings
  • Surface structure and physical property evaluation of medical materials and biomaterials, and utilization in the development of next-generation medical technologies such as regenerative medicine and drug delivery systems
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Developing Biotechnology and Personalized Medicine Technologies
Solved IssuesDecarbonization
Reducing CO2 Emissions from Biopharmaceutical Manufacturing and Establishing Stable Supply Systems
  • We provide solutions by combining advanced control and sensing technologies with AI
    →Reduces large-volume water and energy consumption in cultivation and cleaning processes
    →Minimizes reprocessing caused by quality defects and prevents increased waste
  • Used for advanced operation, anomaly detection, and predictive maintenance via AI
    →Supporting stable and optimized manufacturing processes
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Supporting the Development of High-Performance Materials
Solved IssuesNature Positive
New Materials Development Is Accelerating, Achieving Both Environmental Consideration and Economic Efficiency
  • AI makes predictions on optimal materials and formulations
    →There is no need to repeat multiple experiments like in the past, which significantly reduces energy consumption and CO2 emissions associated with such experiments
    →Enables performance to be maximized with the minimum required amount of materials by optimizing the formulation and usage amounts of raw materials
Solved IssuesDecarbonization
Accurately Identifying Thermal Properties of Pharmaceutical Raw Materials and Products
  • Designs energy-efficient, streamlined manufacturing processes that omit unnecessary heating and cooling processes
  • Evaluates the thermal stability and mechanical properties of materials used in regenerative medicine and similar fields, thereby supporting the development of medical materials that will lead to enhanced durability and reduced environmental impact
  • Evaluates the impact of degradation on the recyclability of medical plastics and composite materials, thereby helping to encourage the reduction and reuse of medical waste
Solved IssuesCircular Economy
Providing Quality Control for Pharmaceuticals and Pharmaceutical Materials While Reducing Environmental Impact
  • Measures components in pharmaceuticals and pharmaceutical ingredients
    →Supports measurements compliant with standards such as the Japanese Pharmacopoeia
  • Energy-saving design, supports electronic records
    →Supports sustainable operation (software compliant with FDA 21 CFR Part 11)
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Reducing Environmental Impact Through Environmental Monitoring
Solved IssuesNature Positive
Rapid Screening for Harmful Chemicals Contained in Medical Devices or Other Materials
  • Offers screening for phthalates and other harmful substances that may be contained in trace amounts in medical devices and pharmaceutical packaging materials without sample preparation
  • Uses nitrogen as the carrier gas
    →Minimizes the consumption of scarce resources, such as helium
Solved IssuesNature Positive
Supporting Risk Management of Heavy Metal Contamination and Compliance with Environmental Standards
  • Highly sensitive, high-precision measurement of trace metals contained in pharmaceuticals, medical devices, and water used in manufacturing
    →Ensures product safety
    →Reduces environmental impact from wastewater and waste liquids
  • Energy-efficient design that minimizes power consumption
  • Improved analytical throughput due to multi-element sequential measurement (rapid sequential) (ZA4800)
Solved IssuesNature Positive
High-Precision Analysis of Ingredients and Impurities Contained in Pharmaceuticals and Bioproducts
  • High-precision detection of trace amounts of organic compounds and other harmful substances contained in products and raw materials
  • Reduced product variation and retesting due to highly sensitive, high-reproducibility analysis
    →Minimizes the amount of reagents and resources used
  • Space saving and built-in temperature control, as well as an energy-efficient design that reduces power while in standby mode
Solved IssuesCircular Economy
Supports High-Precision Quantitative Control of pH, Conductivity, Moisture Content, Residuals, and More
  • Fully automatic titrator: All stages are automated, from weighing samples to titration and electrode cleaning
    →Minimizes product variation and reduces defective products and retesting
  • Titrator: Accurately measures the composition of water used in manufacturing and wastewater
    →Complies with environmental standards and optimizes wastewater treatment
  • Karl Fischer Titrator: Rapidly measures moisture content in pharmaceuticals and raw materials
    →Ensures preservation and safety
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