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Books > Business & Economics > Industry & industrial studies > Manufacturing industries > Pharmaceutical industries
This book is open access under a CC-BY license. The importance of
the pharmaceutical industry in Sub-Saharan Africa, its claim to
policy priority, is rooted in the vast unmet health needs of the
sub-continent. Making Medicines in Africa is a collective
endeavour, by a group of contributors with a strong African and
more broadly Southern presence, to find ways to link technological
development, investment and industrial growth in pharmaceuticals to
improve access to essential good quality medicines, as part of
moving towards universal access to competent health care in Africa.
The authors aim to shift the emphasis in international debate and
initiatives towards sustained Africa-based and African-led
initiatives to tackle this huge challenge. Without the
technological, industrial, intellectual, organisational and
research-related capabilities associated with competent
pharmaceutical production, and without policies that pull the
industrial sectors towards serving local health needs, the African
sub-continent cannot generate the resources to tackle its
populations' needs and demands. Research for this book has been
selected as one of the 20 best examples of the impact of UK
research on development. See
http://www.ukcds.org.uk/the-global-impact-of-uk-research for
further details.
Vaccines have saved more lives than any other single medical
advance. Yet today only four companies make vaccines, and there is
a growing crisis in vaccine availability. Why has this happened?
This remarkable book recounts for the first time a devastating
episode in 1955 at Cutter Laboratories in Berkeley, California,
thathas led many pharmaceutical companies to abandon vaccine
manufacture. Drawing on interviews with public health officials,
pharmaceutical company executives, attorneys, Cutter employees, and
victims of the vaccine, as well as on previously unavailable
archives, Dr. Paul Offit offers a full account of the Cutter
disaster. He describes the nation’s relief when the polio vaccine
was developed by Jonas Salk in 1955, the production of the vaccine
at industrial facilities such as the one operated by Cutter, and
the tragedy that occurred when 200,000 people were inadvertently
injected with live virulent polio virus: 70,000 became ill, 200
were permanently paralyzed, and 10 died. Dr. Offit also explores
how, as a consequence of the tragedy, one jury’s verdict set in
motion events that eventually suppressed the production of vaccines
already licensed and deterred the development of new vaccines that
hold the promise of preventing other fatal diseases.
This searing indictment, David HealyOCOs most comprehensive and
forceful argument against the pharmaceuticalization of medicine,
tackles problems in health care that are leading to a growing
number of deaths and disabilities. Healy, who was the first to draw
attention to the now well-publicized suicide-inducing side effects
of many anti-depressants, attributes our current state of affairs
to three key factors: product rather than process patents on drugs,
the classification of certain drugs as prescription-only, and
industry-controlled drug trials. These developments have tied the
survival of pharmaceutical companies to the development of
blockbuster drugs, so that they must overhype benefits and deny
real hazards. Healy further explains why these trends have
basically ended the possibility of universal health care in the
United States and elsewhere around the world. He concludes with
suggestions for reform of our currently corrupted evidence-based
medical system.
Photophysics and Nanophysics in Therapeutics explores the latest
advances and applications of phototherapy and nanotherapy, covering
the application of light, radiation, and nanotechnology in
therapeutics, along with the fundamental principles of physics in
these areas. Consisting of two parts, the book first features a
range of chapters covering phototherapeutics, from the fundamentals
of photodynamic therapy (PDT) to applications such as cancer
treatment and advances in radiotherapy, applied physics in cancer
radiotherapy treatment, and the role of carbon ion beam therapy.
Other sections cover nanotherapeutics, potential applications and
challenges, and nanotherapy for drug delivery to the brain. Final
chapters delve into nanotechnology in the diagnosis and treatment
of cancers, the role of nanocarriers for HIV treatment,
nanoparticles for rheumatoid arthritis treatment, peptide
functionalized nanomaterials as microbial sensors, and theranostic
nanoagents.
The pharmaceutical industry is broken. From the American hedge fund
manager who hiked the price of an AIDS pill from $17.50 to $750
overnight to the children's cancer drugs left intentionally to
expire in a Spanish warehouse, the signs of this dysfunction are
all around. A system that was designed to drive innovation and
patient care has been relentlessly distorted to drive up profits.
Medicines have become nothing more than financial assets. The focus
of drug research, how drugs are priced and who has access to them
is now dictated by shareholder value, not the good of the public.
Drug companies fixated on ever-higher profits are being fined for
bribing doctors and striking secret price-gouging deals, while
patients desperate for life-saving medicines are driven to the
black market in search of drugs that national health services can't
afford. Sick Money argues that the way medicines are developed and
paid for is no longer working. Unless we take action we risk a
dramatic decline in the pace of drug development and a future in
which medicines are only available to the highest bidder. In this
book investigative journalist Billy Kenber offers a diagnosis of an
industry in crisis and a prescription for how we can fight back.
Pharmacognosy: Current Herbal Medications and Natural Product
Chemistry for a PharmD Curriculum focuses on the regulation and
practicum of herbal medications in the real world. By introducing
natural products as lead compounds for drug design, discovery, and
development, the text bridges the gap between traditional herbal
medications and current Western medicines. The book covers the
unique and rich history of pharmacognosy in pharmacy practice and
the critical role it has and continues to play in the evolution of
modern Western medicine. Part I contains readings that provide
students with an overview of the history of pharmacognosy, as well
as the contemporary use of herbal medicine around the globe. In
Part II, students learn about dietary supplements, botanical
ingredients, herbal bioavailability, pharmacokinetics, and the
mechanisms of herb-drug interactions. Part III covers natural
products that can be used for pain management, anxiety and insomnia
treatment, immune modulation, treating inflammation, infectious
diseases, cancer, and more. The final part features case studies to
demonstrate the practical applications of pharmacognosy. Featuring
contemporary research and information that satisfies Accreditation
Council for Pharmacy Education (ACPE) Standards, Pharmacognosy is
ideal for courses and programs in pharmacy and medicinal chemistry.
There is plenty of controversy surrounding pharmaceuticals, but it
cannot be denied that the pharmaceutical industry is both socially
beneficial and profitable. Regulators are expected to ensure that
the economic success of the industry does not come at the expense
of public safety, yet they have also assumed a cooperative role by
providing advice on regulation and by targeting unmet medical
needs. Concerns over regulatory standards, conflicts of interest,
and the manipulation of information on drug safety and
effectiveness have led to public mistrust and a greater need for
transparency between the pharmaceutical industry and government
regulators. Transparency, Power, and Influence in the
Pharmaceutical Industry evaluates the progress made in holding the
pharmaceutical industry responsible for creating transparency in
the industry, from development to market. The contributors to this
volume examine the various mechanisms introduced to make the
regulatory process more informative and situate these efforts
within the larger project of enhancing the safety of drugs,
vaccines, and other products.
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