Welcome to the Industrial Automation website!

NameDescriptionContent
HONG  KANG
E-mail  
Password  
  
Forgot password?
  Register
当前位置:

Global Life Sciences Industry Outlook 2023

来源: | 作者:佚名 | 发布时间 :2023-12-19 | 286 次浏览: | Share:



1. Constantly adjusting portfolio and value creation

In the life sciences, key portfolio decisions that companies are considering today were born at a time of financial disparity. Multiple models and portfolio options are emerging, including the development of potential "blockbuster" drugs, the search for a new generation of therapies, and a focus on diversification. Companies manage to put their capital to work through mergers and acquisitions, which in turn drive these choices. In addition, as interest rates rise and valuations fall, medtech companies are reducing uncertainty within the industry by divesting low-growth and low-margin assets. In doing so, medtech companies can free up capital and improve their financial position in hopes of making them more attractive to strategic acquirers.

Expectations for a recovery in mergers and acquisitions (M&A) have increased, with the majority of M&A activity slowing in 2022, with the number of life sciences deals above $1 billion down 60% from 2021. Still, drug companies with a lot of money at their disposal seem ready to unleash pent-up demand. One of the potential areas of interest for acquirers is multi-indication drugs with potential applications across therapeutic areas, which have the potential to deliver higher returns. However, potential acquirers would need to pay a premium for the drug's versatility.

Life science companies are actively exploring new ways to generate revenue. And a series of developments driving pharmaceutical portfolio realignment involve the emergence of mRNA technology. The anticipation of mRNA technology and the next generation of therapies such as cell and gene therapies will create opportunities for life science companies to increase revenue streams.

Exploring therapeutic innovations, including research into a new generation of therapies, including gene editing, is another area of portfolio expansion for life sciences companies. However, significant challenges remain, particularly the exorbitant upfront costs of developing a CGT and the need for customized manufacturing processes. In addition, due to the ongoing impact of the epidemic, CGT companies are still facing a shortage of raw materials. Life sciences companies may need to consider alternative funding and payment models to accelerate the widespread adoption of their CGT.

In the current environment, companies are rationalizing their underlying assets by divesting non-core assets (assets that do not fit into the overall portfolio, or restructuring and realigning portfolios). Adverse economic conditions have made many deals more attractive.

Ii. Research and Development

According to a Deloitte survey, R&D innovation is one of the top actions that 91% of life sciences companies plan to increase investment in 2023. Life sciences companies will continue to make advances in research and development areas such as translational medicine, big data analytics, and digital innovation. More advanced technologies will also emerge. Given changes in market, regulatory and reimbursement practices, life sciences R&D organizations are under increasing pressure to generate sustainable returns on investment, and companies need to reshape and adapt traditional R&D models.

The growing benefits of Real-world evidence (RWE) help life science businesses better understand disease progression, monitor patient safety, and evaluate clinical and cost effectiveness. While life sciences companies have lagged behind other industries in adopting RWE, RWE is now an increasingly important part of their decision-making process. Businesses are also collecting and analyzing RWE faster.

Traditional clinical development methods have a long process and a success rate of only 10%. Life sciences companies are actively reshaping clinical trials through digital clinical trials, clinical trial simulations, retail clinics, and smart clinical trials to collect data and analyze results digitally. It not only advances the development and regulatory evaluation of new drugs, but also reduces the time and cost of clinical trial cycles, improves patient safety, and solves the issue of medical equity to a certain extent.

AI is becoming increasingly important to drug development, and through AI technology, life science companies can accelerate drug development and time to market, and more accurately predict development costs.

The outbreak has seen an unprecedented level of cooperation and shared services among global regulators, and these collaborations are likely to continue in the coming years. At the same time, life sciences companies are turning to outside suppliers to reduce the time it takes to develop new drugs.

Supply chain is back on the CEO agenda

With repeated outbreaks, geopolitical turmoil affecting shipping and logistics, and inflation at its highest level in 40 years, biotech and pharmaceutical companies are moving away from well-designed, accurate planning in favor of agile supply chains that can be flexible and quickly adapt to changing environments and diverse scenarios. To better understand vulnerabilities in the supply chain, life sciences businesses are exploring a range of practices to enable forward-looking scenario planning and risk mitigation.

End-to-end visibility is a necessity, and increased vendor visibility and investment in digital sensing capabilities can help life sciences companies avoid costly missteps.

Emphasize people-oriented design to promote production success. Life sciences companies that focus on high-value, relationshipdriven investments in their employees can create more resilient supply chains.

In the long run, sustainability can become an advantage of life science companies' supply chains, and circularity is increasingly becoming a prerequisite for life science companies' supply chain design. In addition, the drive for sustainability has prompted life science companies to avoid inventory imbalances when available supply does not match demand.

In the face of geopolitical security, many life science companies are using blockchain for anti-counterfeiting, genomic and clinical data sharing, revenue management, and material handling. Another key goal for life sciences companies is to improve supply chain visibility, industry partnerships, and distribution agility in national and regional markets to increase their compliance and efficiency.

Pricing and reimbursement

Global drug pricing and reimbursement policies are undergoing a historic shift, and companies are increasingly competing. In response to these commercial pressures, life sciences companies are adopting dynamic pricing while taking a portfolio management approach to the growing number of specialized treatments for a range of diseases. In the increasingly competitive market environment, enterprises gradually adjust their pricing strategies. But in global markets, pressure is also mounting over pricing and equitable access to treatment.

The Inflation Reduction Act (IRA) authorizes Medicare, the US national health insurance program, to negotiate drug prices and force drug manufacturers to pay inflation rebates. However, drugs without a single source and similar competitive products that have been approved and marketed will not be eligible for negotiations. As a result, companies need to deal with price uncertainty.

With the release of the IRA drug pricing provisions, Medicare may expand its acceptance of value-based pricing, which is already used by some health care providers. However, if a similar pricing approach is to be adopted for prescription drugs, the current model cannot be followed and payment amounts need to be determined by an independent assessment of their clinical value.

Drug pricing and reimbursement policies depend on factors such as health profiles, competition and profit margins. Companies need to adapt their pricing and reimbursement strategies to regional markets. One response to changes in drug pricing is to balance a country's ability to pay with the individual needs of patients. Some pharmaceutical companies are using data analytics to predict how local markets will react to specific products.

The relatively high cost of treatment for rare diseases is one of the major challenges in pricing rare disease drugs. Therefore, to bring a new generation of specialty therapies to market, it is necessary to develop its own unique commercialization strategy in terms of pricing and reimbursement.

Managing pricing trends and transparency to improve access to medicines can lead to potential legal hurdles and reputational risks for life sciences businesses.

5. Patient-centered

Today, three-quarters of the world's population has home-tested a global virus, and companies are increasingly able to capture, interpret, and act on billions of patient data points. Patients' expectations and ability to express expectations were improved. The conditions are ripe for true (or more) patient-centricity.

Thanks to virtual health checks and smartphone-enabled diagnostic tools, as well as habits developed during the pandemic, fewer patients are visiting centralized health care facilities, and decentralized diagnostic methods are emerging. Patients stay at home, and life sciences companies can collect their data through personal devices. As life sciences businesses move toward becoming patient-centric, many are exploring "true" direct-to-consumer channels that enable patients to engage directly anytime, anywhere.

In the drug discovery and development process, wearables are another area that life sciences companies are actively exploring and investing in. Since 2010, the number of clinical trials has increased by more than 400 percent. However, patient recruitment remains one of the challenges of discovery research. Currently, pharmaceutical companies are using methods such as remote and virtual participation in trials to improve cost effectiveness and address the barriers faced by patients in traditional trial design.

Life sciences businesses need to build patient-centered partnerships for better diagnoses, experiences, and outcomes. To enhance their patient-centric offerings, life sciences companies manage real-world data to more precisely target patients who can benefit from their treatments. It also focuses on technologies that enhance interoperability between different entities, creating digital interoperability ecosystems that improve patient care. However, full digitisation can only be of value if patients are willing to share sensitive personal information.

6. Digital transformation

The COVID-19 pandemic has had a profound impact on the life sciences sector, including massive digital transformation. During the pandemic, cloud technology and cloud platforms have provided enterprises with scale and flexibility to enable employees to telecommute and collaborate. Cloud technology also helps reduce costs, reduce the time to identify and understand problems, and collect data to improve production and supply chain operations. Businesses that continue to embrace innovation will gain a competitive advantage in the years ahead.

A digital strategy can help life sciences companies make progress, but it can also create new threats when data flows from external proprietary systems into data lakes on various cloud platforms. In the process of building and growing trust, enterprises must find the perfect balance between protecting important information and obtaining data, and the issue of cybersecurity and data protection has therefore attracted high attention.

Enterprise reform has become an inevitable trend. The Deloitte survey found that nearly 80 percent said their organizations need to be more aggressive in adopting digital technologies. This means shifting from a focus on business transactions to an insight-driven, value-based enterprise.

Deloitte's research found that only about 20 percent of biopharmaceutical companies are mature when it comes to digitization. Companies build greater business advantage by increasing their digital maturity and applying innovations and digital technologies to existing and emerging business models in strategic, creative and agile ways to impact patients, partners and employees.

7. Promote equity in medical care

Inequities in the health system are widespread, including significant differences in global health resources, investment, and access to care, as well as more localized, such as unconscious bias, lack of trust, and language barriers. Healthcare inequity strains labor and productivity, challenges supply chains, and influences consumer purchasing decisions, costing life sciences businesses trillions of dollars in lost productivity each year. By addressing healthcare inequities, life sciences business leaders can increase productivity, increase market opportunities, boost revenue growth, and enhance their competitive advantage.

The costs of health inequity are too high to ignore. Across the health ecosystem, inequities can limit access to affordable, quality care, create avoidable costs and financial waste, and impact each individual's potential to achieve health and well-being.

Data inequities are not uncommon, such as data on ethnicity and groups not being collected or properly recorded, and some being misused in determining treatment and diagnostic protocols. Systematic biases can lead to a lack of understanding of certain diseases.

One of the reasons why there are still obstacles to the development of trial diversity is that life sciences companies do not adequately advertise clinical trials, do not provide appropriate opportunities for all populations, and do not address the mistrust that exists among vulnerable populations. Improving clinical trial diversity is imperative.

To achieve health equity, stakeholders need to take action. Leaders must design and build systems that aim to promote health equity. Every business should address healthcare inequities by developing a plan to design and drive a future healthcare delivery that puts patients and equity at the centre.


  • GE Fanuc - A16B-3200-0020 Circuit Board Industrial Automation Core Component
  • GE IS420UCSBH3A - Advanced Industrial Control Module
  • GE Fanuc - IC693APU300J PAC Systems RX3i PLC Controller
  • GE FANUC - IC693MDL654 Modular Control System
  • GE Fanuc - DS200GDPAG1AEB Industrial Control Module for Advanced Automation
  • GE Fanuc - IC694ACC310 Filler Module Advanced Process Control Solution
  • GE Fanuc - IC200MLD750 Output Module Versamax PLC
  • GE IS220PSCAH1A - Advanced Power Control Module for Turbine Systems
  • GE Fanuc - IC220STR001 Direct Motor Starter for Precision Control
  • GE Fanuc - IC698CPE020-GP Slot Rack Card High Performance Control Module
  • GE FANUC - IC693MDL240 Modular Control Module
  • GE Electric - IC693PBM200-FE Master Module Industrial Automation Control Core Component
  • GE URRHV - Power Supply Advanced Industrial Control
  • GE DS6800CCID1D1D - Industrial I/O Interface Module
  • GE MULTILIN - EPM 9650 POWER QUALITY METER PL96501A0A10000
  • GE Electric - Fanuc IC697CMM742-KL Advanced Type 2 Ethernet Interface Module
  • GE Fanuc - IS200TBAIH1C Analog Input Terminal Board
  • GE FANUC - IC600FP608K IC600LX624L Memory Module for Industrial Automation
  • GE Fanuc - 531X135PRGAAM3 Programmer Card Board
  • GE IC200PER101E - Power Supply
  • GE IS420ESWBH3A - High-Speed Industrial Ethernet IONet Switch
  • GE Electric - EPSCPE100-ABAG Standalone PACSystems RSTI-EP Controller
  • GE IS200ICBDH1ACB - Advanced Industrial Control PCB for Critical Applications
  • GE DS200FCGDH1BAA - Precision Gate Distribution & Status Card for Industrial Control Systems
  • GE Fanuc - IC660HHM501R Portable Monitor for Industrial Automation
  • GE DS200IMCPG1C - Power Supply Interface Board for Industrial Controls
  • GE FANUC - IC695ALG508 Advanced Control Module for Industrial Automation
  • GE VM-5Z1 - PLC Module Programmable Logic Controller
  • GE FANUC - IC754CKF12CTD QuickPanel Control Industrial-grade HMI for Precision Automation
  • GE UR - 9GH UR9GH CPU High-Performance Control Module for Industrial Automation
  • GE IS220PGENH1A - Generator Power Unit (I/O)
  • GE Electric - IS220PD0AH1A Industrial Control System I/O Pack Module
  • GE IC694ALG221B - High-Performance Bus Expansion Cable for Enhanced PLC Connectivity
  • GE IC693MDL752 - High-Performance Negative Logic Output Module
  • GE DS200VPBLG1AEE - High-Performance Circuit Board
  • GE Electric SR745-CASE - 745-W2-P5-G5-HI-T Excellent Value
  • GE IS200TTURH1CBB - High-Performance Programmable Logic Controller Module
  • GE A06B-0227-B100 - Servo Motor Precision
  • GE 8021-CE-LH - High-Performance AC/DC Coil Contactor
  • GE FANUC - IC693BEM340 High-Speed Ethernet Controller Module
  • GE DS200SDCIG2AGB - Advanced DC Power Supply & Instrumentation Board for Industrial Control
  • GE FANUC - IC693CHS397E CPU Base Advanced Control Module for Industrial Automation
  • GE UR7BH - Relay Module High Performance Relay for Industrial Control Applications
  • GE FANUC - A17B-3301-0106 CPU MODULE
  • GE Fanuc - HE693ADC415E Drive Module
  • GE IS200VAICH1D - Analog Input Module for Industrial Control Solutions
  • GE Fanuc - DS200SHCAG1BAA High-Performance Turbine Energy Shunt Connector Board
  • GE Fanuc - IS215VCMIH2CC | Communication Card
  • GE IC690ACC901 - Mini Converter Kit Efficient Communication Solution
  • GE Electric - DS3800HCMC Gas Turbine Daughter Board For Enhanced Control & Efficiency
  • GE Electric - FANUC IC200ALG320C Analog Output Module
  • GE Electric - (GE) IS420UCSBH3A REV D
  • GE IC693MDL646B - Advanced Input Module for Industrial Control Solutions
  • GE IC693MDL730F - Advanced Digital Input Module for Industrial Automation
  • GE IC200ALG240 - Analog Input I/O
  • GE IC660BBD020Y - | DC Source I/O Block
  • GE Electric - IC698ACC735 Shielded Single Slot Faceplate
  • GE Fanuc - IC200MDL730 Discrete Output Module
  • GE IS200VAOCH1B - VME Analog Output CD for MARK VI
  • GE IC200ALG328E - High Precision Analog Output Module
  • GE Fanuc - IC200CHS001 A Cutting-edge VersaMax PLC
  • GE UR6DH - Digital I/O Module Advanced Power System Communication
  • GE Fanuc - IC695CHS007 Universal Control Base
  • GE VMIVME-2540-200 - Intelligent Counter & Controller
  • GE Fanuc - DS200LDCCH1ARA Advanced Mark VI Circuit Board for Industrial Automation
  • GE DS3800HMPG - Cutting-Edge CPU Card for Advanced Industrial Control
  • GE IS220PAICH1B - 10 Analog Inputs & 2 Analog Outputs
  • GE DS200TCQAG1BHF - Analog Input/Output Card Precision Control for Industrial Automation
  • GE FANUC - 531X139APMASM7 Micro Application Board for Industrial Control
  • GE DS3800NPPC - Circuit Board Precision Control in Industrial Automation
  • GE IC200UEX626 - 6-Channel Analog Expansion Module for Advanced Process Control
  • GE IC693PWR331D - Advanced Power Supply for Industrial Automation
  • GE DS200TBQBG1ACB - Advanced RST Analog Termination Board
  • GE Fanuc - DS200TBCAG1AAB Advanced PLC for Industrial Automation
  • GE FANUC - DS200LRPAG1AGF Industrial Line Protection Module
  • GE IC693MDL654 - Advanced Logic Input Module for Industrial Control Systems
  • GE Industrial - Controls IC695LRE001B Transmitter Module
  • GE DS3800HUMB1B1A - Universal Memory Board
  • GE IC660BBD021W - Advanced 3-Wire Sensor Block for Industrial Control Systems
  • GE FANUC - IC694APU300 High-Speed Counter Module
  • GE IC694ACC300 - Input Simulator Module Advanced Control Solutions
  • GE FANUC - IC687BEM713C Advanced Bus Transmitter Module for Industrial Automation
  • GE IS200TGENH1A - Advanced Turbine Control Board for Gas and Steam Turbines
  • GE IC693MDL654F - Advanced Modular PLC Input Module for Industrial Automation
  • GE IS200AEPAH1BMF-P - | IS210BPPCH1AD I/O Pack Processor Board
  • GE IS230TRLYH1B - New in Box | Industrial Control Module
  • GE 489-P5-HI-A20-E - Industrial Generator Management Relay
  • GE Electric - (GE) IS200IVFBG1AAA Fiber Optic Feedback Card for Industrial Automation
  • GE Electric - IC693PWR322LT Advanced Industrial Power Supply
  • GE Fanuc - IC200ALG432 Analog Mixed Module VersaMax
  • GE Fanuc - IC693ALG392 Precision Analog Output for Industrial Control Systems
  • GE Fanuc - IC695ACC402 Evergreen Controller Advanced PLC Solution for Industrial Automation
  • GE IC693ACC300D - Input Simulator Module
  • GE 46-288512G1-F - Advanced Industrial Control Module
  • GE IC755CSS12CDB - High-Performance Control Module
  • GE DS200TCCAG1BAA - High-Performance PLC PC Board
  • GE IC3600TUAA1 - Advanced Industrial Control Module
  • GE 8810 - HI TX-01 Brand New Advanced Industrial Control Module
  • GE 750-P5-G5-D5-HI-A20-R-E - Relay
  • GE Fanuc - IC200MDL330 Network Interface Unit Advanced Networking for Industrial Automation
  • GE Fanuc - IC676PBI008 Waterproof Input Block
  • GE Circuit - Board 304A8483G51A1A
  • GE YPH108B - Measurement Board
  • GE UR6AH - Digital I/O Module Industrial Control
  • GE IC200ALG264E - High Precision Current Analog Input Module
  • GE IS200TRLYH2C - Relay Output Module with Contact Sensing Terminal Board; Manufacturer GE-FANUC
  • GE IC693ALG442B - Advanced Programmable Logic Controller Module
  • GE IC693ACC301 - Lithium Battery Replacement Module
  • GE Fanuc - DS200PTBAG1A Termination Board Advanced Control Module
  • GE IS200VCRCH1BBB - Mark VI Circuit Board
  • GE IS200UCVEH2A - High-Performance Exciter Bridge Interface BOARD for Industrial Automation
  • GE IS220PDIOS1A - Mark VI Control Module
  • GE IS210AEBIH3BEC - Advanced Input/Output Board for MKVI Control Systems
  • GE 6KLP21001X9A1 - AC Variable Frequency Drive
  • GE 531X123PCHACG1 - Advanced Power Supply Interface Card
  • GE Electric - STXKITPBS001 Profibus Interface Module for Industrial Control Systems
  • GE DS200TCRAG1AAA - Industrial Grade Relay Output Board for Enhanced Control Systems
  • GE UR9NH - CPUUR CPU Module
  • GE Electric - DS200TCQFG1ACC
  • GE Electric - Fanuc IC200ALG260H Analog Input Module Precision & Reliability in Automation Solutions
  • GE DS200SLCCG3RGH - Industrial Control Module
  • GE DS3800NMEC1G1H - Industrial Motor Control Module
  • GE Fanuc - 531X113PSFARG1 | Mark VI Circuit Board
  • GE Fanuc - IC693ALG392C Analog Output Module Precision Control in Industrial Automation
  • GE IC693ALG220G - Advanced Input Analog Module for Industrial Automation
  • GE DS200DTBCG1AAA - Industrial Control System's Reliable Core
  • GE F31X301DCCAPG1 - Control Board Advanced Industrial Automation Solution
  • GE Electric - (GE) IS200AEAAH1AAA Mark VI Printed Circuit Board