Pharma Excipients
No Result
View All Result
  • Login
  • Shop
  • News
    • Specials
      • Excipients for CBD
      • Excipients & 3D Printing
      • Infographics – The overview
      • GMP-certified excipient production sites
      • The Future of TiO2
      • Excipients in the COVID-19 Vaccines
      • BASF PVP-Iodine
      • RegXcellence™
      • BASF Parenteral Excipients
    • World Days – The overview
  • Excipient basics
    • Excipient Solutions for CBD
    • Inorganic Chemicals
      • Calcium Carbonate
      • Calcium Phosphates
      • Calcium Sulfate
      • Halites
      • Metallic Oxides
      • Silica
    • Organic Chemicals
      • Actual Sugars
      • Artificial Sweeteners
      • Carbohydrates
      • Cellulose
      • Cellulose Esters
      • Cellulose Ethers
      • CMC and Croscarmellose Sodium
      • Converted Starch
      • Dried Starch
      • Microcrystalline Cellulose
      • Modified Starch
      • Starch
      • Sugars
      • Sugar Alcohols
    • Petrochemicals
      • Acrylic Polymers
      • Glycols
      • Mineral Hydrocarbons
      • Mineral Oils
      • Mineral Waxes
      • Petrolatum
      • Polyethylene Glycol (PEG)
      • Povidones
      • Propylene Glycol
      • Other Petrochemical Excipients
    • Oleochemicals
      • Fatty Alcohols
      • Glycerin
      • Mineral Stearates
      • Pharmaceutical Oils
      • Other Oleochemical Excipients
    • Proteins
  • Applications
    • 3D Printing – Drug Carrier
      • 3D Printing
      • Binder
      • Coating
      • Colour / Color
      • Coating Systems and Additives
      • Controlled Release Excipient
      • DC excipient
      • Disintegrant / Superdisintergrant
      • Drug Carrier
    • Emulsifier – Glidant
      • Emulsifier
      • Excipient for Inhalation
      • Filler
      • Film former
      • Flavour / Flavor
      • Glidant
    • Lubricant – Preservative
      • Lubricant
      • Nanotechnology
      • Orally Dissolving Technology Excipient
      • Pellet
      • Plasticizer
      • Preservative
    • Solubilizer – Viscocity Agent
      • Solubilizer
      • Speciality Excipient
      • Surfactants
      • Suspension Agent
      • Sustained Release Agent
      • Sweeteners
      • Taste Masking
      • Topical Excipient
      • Viscocity Agent
  • Sources
    • Handbook of Pharmaceutical Excipients – 9th Edition
    • EINECS Numbers
    • Excipient DMF List
    • Excipient cGMP Certification Organisations
    • FDA Inactive Ingredient List
    • FDA GRAS Substances (SCOGS) Database
    • Excipient E-Numbers
    • Whitepapers / Publications
    • Contract Development|Contract Manufacturing
  • Suppliers
    Excipient Suppliers List
    BIOGRUND Logo
    Evonik Logo
    LI logo violet
    logo roquette
    ADM
    Armor Pharma
    Asahi KASEI
    Ashland
    BASF
    Beneo
    Budenheim
    Captisol
    Clariant Logo
    Clariant
    Croda
    DFE Pharma
    Excipio Chemicals
    Fuji Chemical
    Gattefossé
    Gangwal
    IamFluidics
    IamFluidics
    IOI Oleo
    Ingredient Pharm
    JRS Pharma
    Kerry Logo
    Kerry
    KLK Oleo
    KLK Oleo
    Lipoid
    Lubrizol Life Science Health
    Lubrizol Life Science Health
    MAGNESIA
    MAGNESIA
    MEGGLE Excipients & Technology
    MEGGLE
    Nagase Viita
    Nagase Viita
    Nordic Bioproducts
    Nordic Bioproducts
    Pfanstiehl
    Pfanstiehl
    pharm-a-spheres
    pharm-a-spheres
    PMC Isochem
    PMC Isochem
    Seppic
    Seppic
    ShinEtsu
    ShinEtsu
    Sigachi
    Sigachi
    SPI Pharma
    SPI Pharma
    Südzucker
    Südzucker
    Vikram Thermo
    Vikram Thermo
    Zerion Pharma
    Zerion Pharma
    • A-B
      • ADM
      • ARMOR PHARMA
      • Ceolus™ & Celphere™
      • Ashland
      • BASF
      • Beneo – galenIQ
      • Biogrund
      • Budenheim
    • C-G
      • Captisol
      • Croda
      • Cyclolab
      • DFE Pharma
      • DuPont Pharma Solutions
      • Evonik
      • Fuji Chemical Industries
      • Gattefossé
      • Gangwal Healthcare
    • I-O
      • ingredientpharm
      • IOI Oleochemical
      • JRS Pharma
      • Kerry
      • KLK Oleo Life Science
      • Lactalis Ingredients Pharma
      • Lipoid
      • Dr. Paul Lohmann
      • Lubrizol
      • Magnesia
      • MEGGLE Excipients
      • Nagase Viita – Pharmaceutical Ingredients
      • Nordic Bioproducts Group
    • P-Z
      • Pfanstiehl
      • pharm-a-spheres
      • Pharma Line
      • PMC Isochem
      • Roquette Pharma
      • Seppic
      • Shin-Etsu
      • Sigachi Group
      • Südzucker AG
      • VIKRAM THERMO
      • Zerion Pharma
      • ZoomLab® – Your Virtual Pharma Assistant
  • Inquiries
    • Product Inquiry
    • Tailored Tableting Excipients
      • Tailored Film Coating
  • Events
    • Overview Pharmaceutical Webinars
    • Videos CPhI Frankfurt 2025
    • CPhI China 2024
    • ExciPerience – The great excipient event!
  • All4Nutra

No products in the cart.

  • Shop
  • News
    • Specials
      • Excipients for CBD
      • Excipients & 3D Printing
      • Infographics – The overview
      • GMP-certified excipient production sites
      • The Future of TiO2
      • Excipients in the COVID-19 Vaccines
      • BASF PVP-Iodine
      • RegXcellence™
      • BASF Parenteral Excipients
    • World Days – The overview
  • Excipient basics
    • Excipient Solutions for CBD
    • Inorganic Chemicals
      • Calcium Carbonate
      • Calcium Phosphates
      • Calcium Sulfate
      • Halites
      • Metallic Oxides
      • Silica
    • Organic Chemicals
      • Actual Sugars
      • Artificial Sweeteners
      • Carbohydrates
      • Cellulose
      • Cellulose Esters
      • Cellulose Ethers
      • CMC and Croscarmellose Sodium
      • Converted Starch
      • Dried Starch
      • Microcrystalline Cellulose
      • Modified Starch
      • Starch
      • Sugars
      • Sugar Alcohols
    • Petrochemicals
      • Acrylic Polymers
      • Glycols
      • Mineral Hydrocarbons
      • Mineral Oils
      • Mineral Waxes
      • Petrolatum
      • Polyethylene Glycol (PEG)
      • Povidones
      • Propylene Glycol
      • Other Petrochemical Excipients
    • Oleochemicals
      • Fatty Alcohols
      • Glycerin
      • Mineral Stearates
      • Pharmaceutical Oils
      • Other Oleochemical Excipients
    • Proteins
  • Applications
    • 3D Printing – Drug Carrier
      • 3D Printing
      • Binder
      • Coating
      • Colour / Color
      • Coating Systems and Additives
      • Controlled Release Excipient
      • DC excipient
      • Disintegrant / Superdisintergrant
      • Drug Carrier
    • Emulsifier – Glidant
      • Emulsifier
      • Excipient for Inhalation
      • Filler
      • Film former
      • Flavour / Flavor
      • Glidant
    • Lubricant – Preservative
      • Lubricant
      • Nanotechnology
      • Orally Dissolving Technology Excipient
      • Pellet
      • Plasticizer
      • Preservative
    • Solubilizer – Viscocity Agent
      • Solubilizer
      • Speciality Excipient
      • Surfactants
      • Suspension Agent
      • Sustained Release Agent
      • Sweeteners
      • Taste Masking
      • Topical Excipient
      • Viscocity Agent
  • Sources
    • Handbook of Pharmaceutical Excipients – 9th Edition
    • EINECS Numbers
    • Excipient DMF List
    • Excipient cGMP Certification Organisations
    • FDA Inactive Ingredient List
    • FDA GRAS Substances (SCOGS) Database
    • Excipient E-Numbers
    • Whitepapers / Publications
    • Contract Development|Contract Manufacturing
  • Suppliers
    Excipient Suppliers List
    BIOGRUND Logo
    Evonik Logo
    LI logo violet
    logo roquette
    ADM
    Armor Pharma
    Asahi KASEI
    Ashland
    BASF
    Beneo
    Budenheim
    Captisol
    Clariant Logo
    Clariant
    Croda
    DFE Pharma
    Excipio Chemicals
    Fuji Chemical
    Gattefossé
    Gangwal
    IamFluidics
    IamFluidics
    IOI Oleo
    Ingredient Pharm
    JRS Pharma
    Kerry Logo
    Kerry
    KLK Oleo
    KLK Oleo
    Lipoid
    Lubrizol Life Science Health
    Lubrizol Life Science Health
    MAGNESIA
    MAGNESIA
    MEGGLE Excipients & Technology
    MEGGLE
    Nagase Viita
    Nagase Viita
    Nordic Bioproducts
    Nordic Bioproducts
    Pfanstiehl
    Pfanstiehl
    pharm-a-spheres
    pharm-a-spheres
    PMC Isochem
    PMC Isochem
    Seppic
    Seppic
    ShinEtsu
    ShinEtsu
    Sigachi
    Sigachi
    SPI Pharma
    SPI Pharma
    Südzucker
    Südzucker
    Vikram Thermo
    Vikram Thermo
    Zerion Pharma
    Zerion Pharma
    • A-B
      • ADM
      • ARMOR PHARMA
      • Ceolus™ & Celphere™
      • Ashland
      • BASF
      • Beneo – galenIQ
      • Biogrund
      • Budenheim
    • C-G
      • Captisol
      • Croda
      • Cyclolab
      • DFE Pharma
      • DuPont Pharma Solutions
      • Evonik
      • Fuji Chemical Industries
      • Gattefossé
      • Gangwal Healthcare
    • I-O
      • ingredientpharm
      • IOI Oleochemical
      • JRS Pharma
      • Kerry
      • KLK Oleo Life Science
      • Lactalis Ingredients Pharma
      • Lipoid
      • Dr. Paul Lohmann
      • Lubrizol
      • Magnesia
      • MEGGLE Excipients
      • Nagase Viita – Pharmaceutical Ingredients
      • Nordic Bioproducts Group
    • P-Z
      • Pfanstiehl
      • pharm-a-spheres
      • Pharma Line
      • PMC Isochem
      • Roquette Pharma
      • Seppic
      • Shin-Etsu
      • Sigachi Group
      • Südzucker AG
      • VIKRAM THERMO
      • Zerion Pharma
      • ZoomLab® – Your Virtual Pharma Assistant
  • Inquiries
    • Product Inquiry
    • Tailored Tableting Excipients
      • Tailored Film Coating
  • Events
    • Overview Pharmaceutical Webinars
    • Videos CPhI Frankfurt 2025
    • CPhI China 2024
    • ExciPerience – The great excipient event!
  • All4Nutra
No Result
View All Result
Pharma Excipients
No Result
View All Result

Startseite » News » Why 90% of clinical drug development fails and how to improve it?

Why 90% of clinical drug development fails and how to improve it?

9. March 2022
Structure‒tissue exposure:selectivity–activity relationship (STAR) selects drug candidates and balances clinical dose:efficacy:toxicity

Structure‒tissue exposure:selectivity–activity relationship (STAR) selects drug candidates and balances clinical dose:efficacy:toxicity

Ninety percent of clinical drug development fails despite implementation of many successful strategies, which raised the question whether certain aspects in target validation and drug optimization are overlooked? Current drug optimization overly emphasizes potency/specificity using structure‒activity-relationship (SAR) but overlooks tissue exposure/selectivity in disease/normal tissues using structure‒tissue exposure/selectivity–relationship (STR), which may mislead the drug candidate selection and impact the balance of clinical dose/efficacy/toxicity. We propose structure‒tissue exposure/selectivity–activity relationship (STAR) to improve drug optimization, which classifies drug candidates based on drug’s potency/selectivity, tissue exposure/selectivity, and required dose for balancing clinical efficacy/toxicity. Class I drugs have high specificity/potency and high tissue exposure/selectivity, which needs low dose to achieve superior clinical efficacy/safety with high success rate. Class II drugs have high specificity/potency and low tissue exposure/selectivity, which requires high dose to achieve clinical efficacy with high toxicity and needs to be cautiously evaluated. Class III drugs have relatively low (adequate) specificity/potency but high tissue exposure/selectivity, which requires low dose to achieve clinical efficacy with manageable toxicity but are often overlooked. Class IV drugs have low specificity/potency and low tissue exposure/selectivity, which achieves inadequate efficacy/safety, and should be terminated early. STAR may improve drug optimization and clinical studies for the success of clinical drug development.

Why 90% of clinical drug development fails?

Drug discovery and development is a long, costly, and high-risk process that takes over 10–15 years with an average cost of over $1–2 billion for each new drug to be approved for clinical use1. For any pharmaceutical company or academic institution, it is a big achievement to advance a drug candidate to phase I clinical trial after drug candidates are rigorously optimized at preclinical stage. However, nine out of ten drug candidates after they have entered clinical studies would fail during phase I, II, III clinical trials and drug approval. It is also worth noting that the 90% failure rate is for the drug candidates that are already advanced to phase I clinical trial, which does not include the drug candidates in the preclinical stages. If drug candidates in the preclinical stage are also counted, the failure rate of drug discovery/development is even higher than 90%.

Analyses of clinical trial data from 2010 to 2017 show four possible reasons attributed to the 90% clinical failures of drug development: lack of clinical efficacy (40%–50%), unmanageable toxicity (30%), poor drug-like properties (10%–15%), and lack of commercial needs and poor strategic planning (10%)2,4. Generally, drug development follows a classical process (Fig. 1), which includes vigorous genetic and genomic target validation, high-throughput screening (HTS) of drug candidate molecules, rigorously drug optimization for activity and drug-like properties, preclinical efficacy and toxicity testing, and biomarker-guided selection of patients and optimal clinical trial designs. In the past few decades, each step of the above drug development has been rigorously optimized and validated, while many successful strategies have been rightfully implemented in the drug development process to select the best drug candidates for clinical studies. Despite this validated effort, the overall success rate of clinical drug development remains low at 10%–15%. Such persistent high failure rate raises several questions: Why 90% of clinical drug development fails despite implementation of many successful strategies in the past several decades? Did we overlook certain aspects of drug development process leading to high failure? How can we improve the success rate of clinical drug development?

Download the full article

Continue reading here

About this article: Duxin Sun, Wei Gao, Hongxiang Hu, Simon Zhou, Why 90% of clinical drug development fails and how to improve it?Acta Pharmaceutica Sinica B, 2022, ISSN 2211-3835, https://doi.org/10.1016/j.apsb.2022.02.002.
(https://www.sciencedirect.com/science/article/pii/S2211383522000521)

Tags: excipientsformulation

Related Posts

Effect of diluent and binder type on the acetaminophen release from tablets under simulated fasted and fed conditions
Asahi Kasei

Effect of diluent and binder type on the acetaminophen release from tablets under simulated fasted and fed conditions

14. April 2026
Formulation Strategies to Improve Drug Absorption
Poster

Formulation Strategies to Improve Drug Absorption: The Role of Lipid-Based Formulations and Permeation Enhancers

13. April 2026
High-drug-loaded immediate-release tablets of caffeine prepared by twin-screw melt granulation with mannitol
Poster

High-drug-loaded immediate-release tablets of caffeine prepared by twin-screw melt granulation with mannitol

13. April 2026
Next Post
Life cycle of influenza A virus.

Antiviral Drugs in Influenza

Cart

Shop Search

  • Search for excipients and samples
  • Product Inquiry
  • Newsletter Registration
  • Visit the Homepage

Top Pharma-Excipient Links

  • Pharmaceutical Excipients – Some Definition
  • Inactive ingredient search for approved drug products in the USA
  • Excipient Suppliers List
  • GRAS Substances (SCOGS) Database
  • DC Excipients List
  • Homepage

About | Privacy Policy | Cookie policy | Cookie Settings | Contact | Homepage
Copyright: PharmaExcipients AG

Welcome Back!

Login to your account below

Forgotten Password?

Retrieve your password

Please enter your username or email address to reset your password.

Log In
No Result
View All Result
  • Shop
  • News
    • Specials
      • Excipients for CBD
      • Excipients & 3D Printing
      • Infographics – The overview
      • GMP-certified excipient production sites
      • The Future of TiO2
      • Excipients in the COVID-19 Vaccines
      • BASF PVP-Iodine
      • RegXcellence™
      • BASF Parenteral Excipients
    • World Days – The overview
  • Excipient basics
    • Excipient Solutions for CBD
    • Inorganic Chemicals
      • Calcium Carbonate
      • Calcium Phosphates
      • Calcium Sulfate
      • Halites
      • Metallic Oxides
      • Silica
    • Organic Chemicals
      • Actual Sugars
      • Artificial Sweeteners
      • Carbohydrates
      • Cellulose
      • Cellulose Esters
      • Cellulose Ethers
      • CMC and Croscarmellose Sodium
      • Converted Starch
      • Dried Starch
      • Microcrystalline Cellulose
      • Modified Starch
      • Starch
      • Sugars
      • Sugar Alcohols
    • Petrochemicals
      • Acrylic Polymers
      • Glycols
      • Mineral Hydrocarbons
      • Mineral Oils
      • Mineral Waxes
      • Petrolatum
      • Polyethylene Glycol (PEG)
      • Povidones
      • Propylene Glycol
      • Other Petrochemical Excipients
    • Oleochemicals
      • Fatty Alcohols
      • Glycerin
      • Mineral Stearates
      • Pharmaceutical Oils
      • Other Oleochemical Excipients
    • Proteins
  • Applications
    • 3D Printing – Drug Carrier
      • 3D Printing
      • Binder
      • Coating
      • Colour / Color
      • Coating Systems and Additives
      • Controlled Release Excipient
      • DC excipient
      • Disintegrant / Superdisintergrant
      • Drug Carrier
    • Emulsifier – Glidant
      • Emulsifier
      • Excipient for Inhalation
      • Filler
      • Film former
      • Flavour / Flavor
      • Glidant
    • Lubricant – Preservative
      • Lubricant
      • Nanotechnology
      • Orally Dissolving Technology Excipient
      • Pellet
      • Plasticizer
      • Preservative
    • Solubilizer – Viscocity Agent
      • Solubilizer
      • Speciality Excipient
      • Surfactants
      • Suspension Agent
      • Sustained Release Agent
      • Sweeteners
      • Taste Masking
      • Topical Excipient
      • Viscocity Agent
  • Sources
    • Handbook of Pharmaceutical Excipients – 9th Edition
    • EINECS Numbers
    • Excipient DMF List
    • Excipient cGMP Certification Organisations
    • FDA Inactive Ingredient List
    • FDA GRAS Substances (SCOGS) Database
    • Excipient E-Numbers
    • Whitepapers / Publications
    • Contract Development|Contract Manufacturing
  • Suppliers
    • A-B
      • ADM
      • ARMOR PHARMA
      • Ceolus™ & Celphere™
      • Ashland
      • BASF
      • Beneo – galenIQ
      • Biogrund
      • Budenheim
    • C-G
      • Captisol
      • Croda
      • Cyclolab
      • DFE Pharma
      • DuPont Pharma Solutions
      • Evonik
      • Fuji Chemical Industries
      • Gattefossé
      • Gangwal Healthcare
    • I-O
      • ingredientpharm
      • IOI Oleochemical
      • JRS Pharma
      • Kerry
      • KLK Oleo Life Science
      • Lactalis Ingredients Pharma
      • Lipoid
      • Dr. Paul Lohmann
      • Lubrizol
      • Magnesia
      • MEGGLE Excipients
      • Nagase Viita – Pharmaceutical Ingredients
      • Nordic Bioproducts Group
    • P-Z
      • Pfanstiehl
      • pharm-a-spheres
      • Pharma Line
      • PMC Isochem
      • Roquette Pharma
      • Seppic
      • Shin-Etsu
      • Sigachi Group
      • Südzucker AG
      • VIKRAM THERMO
      • Zerion Pharma
      • ZoomLab® – Your Virtual Pharma Assistant
  • Inquiries
    • Product Inquiry
    • Tailored Tableting Excipients
      • Tailored Film Coating
  • Events
    • Overview Pharmaceutical Webinars
    • Videos CPhI Frankfurt 2025
    • CPhI China 2024
    • ExciPerience – The great excipient event!
  • All4Nutra

About | Privacy Policy | Cookie policy | Cookie Settings | Contact | Homepage
Copyright: PharmaExcipients AG