Friday, December 14, 2012
Happy Holidays, everyone!
Biokyra wishes you a New Year full of peace and hope.
Happy Holidays, everyone!
Sincerely,
Team Biokyra.
Friday, December 7, 2012
Be welcome, Innovation.
From Europe 2020 to Strategy for
American Innovation. From Brasil
Maior to Industrial R&D Promotion
Programme. All the governmental programs mentioned above try to create
conditions and stimulate a national foundation for innovative industries in the
European Union, United States, Brazil and India. Innovation seems to be the answer
for national development and sustainable economic growth.
Seeking to increase a better
understanding of innovative approaches and measurement, the Organization for
Economic Co-operation and Development (OECD) developed the Oslo Manual[1], which provides guidelines for collecting and interpreting
innovation in an internationally comparable manner. Even with limitations,
every new edition of the Oslo Manual
represents a step forward to the understanding of the innovation process.
Using the meanings and criteria of
the Oslo Manual, the UNESCO Institute
of Statistics presented the 2011 UIS
Pilot Data Collection of Innovation Statistics[2].
Comparing 12 countries from different regions and at different levels of
development, it seeks to show the different stages of innovation process around
the world, taking especial attention to developing countries.
As one shall conclude, innovation is
a concern for both developed and developing countries. With different levels of
innovation process, each one acts according to its needs and goals. Catching up is the main target for
developing countries in order to not fall
behind in international trade and development. As for developed countries,
they have reached a stage of progress that the only way of not becoming
outdated is with
“(…)Investments, technology development, innovation and good management
practices(…)”
President Dilma’s speech, April 3rd, 2012
References:
http://ec.europa.eu/europe2020/
[1] For further information about the
Oslo Manual, access http://epp.eurostat.ec.europa.eu/cache/ITY_PUBLIC/OSLO/EN/OSLO-EN.PDF
[2] For further information about the
2011 UIS Pilot Data Collection of Innovation Statistics, access http://www.uis.unesco.org/ScienceTechnology/Documents/Innovation-statistics-en%20(2).pdf
Tuesday, November 20, 2012
Cardiovascular Diseases: a Global Concern
Although
the world of the new millennium has seen many improvements in the health
sector, the path of healing diseases is far to be overcome. Cardiovascular
diseases (CVD) are still huge challenges for the medical society. More people die annually from this kind of
illness than from any other cause and that is the reason why it has been given
an especial attention worldwide.
According
to the World Health Organization (WTO), an estimated 17.3 million people died
from cardiovascular diseases in 2008, representing 30% of global deaths.
Coronary heart diseases and stroke are the main causes of these deaths (almost
80%). It is well known worldwide the main factors that increase the probability
of getting a stroke: unhealthy diet, physical inactivity, overweight, high blood
pressure, tobacco use and harmful use of alcohol.
Besides,
low and middle-income countries are the most affected, about 80% of world’s
death from CVD. As reported by the WHO, “people
in low and middle-income countries are more exposed to risk factors such as tobacco
(…). At the same time they often do not have the benefit of prevention programs
compared to people in high-income countries.” Meanwhile, at a
macro-economic level, it represents a heavy burden on the economies of low and
middle-income countries. Non-communicable diseases – including cardiovascular
and diabetes – are estimated to reduce GDP by 6,77% in low and middle-income
countries facing rapid economic development.
The programs to fight against cardiovascular diseases
are highly expensive. Integrated actions at country level, led by governments,
are the means to maintain the people away from risk factors and, hence, not
allowing it to become a burden on national economies.
There is no difference in Brazil. Around 300 thousands
of people die from cardiovascular diseases each year, according to the
Brazilian government. Nevertheless, by the public healthcare system (SUS), the
government provides many preventive actions programs, diagnosis and free
treatments for CVD.
References: http://www.who.int/en/
Tuesday, November 6, 2012
Medical Devices Industry in Developing Countries
With the arrival of the 21st century, a new
era both in global technology industry and economic growth model began. Developed
countries left the second industrial revolution behind and started focusing on
the new generation of technologies: information technology, nanotechnology,
internet, biotechnology. We are led to think that developing countries are
still not capable of supporting this kind of industry, for requiring huge
investments in R&D departments and qualified teams (without mentioning
investments in infrastructure, energy and transportation). But there are some
countries that are showing the world that this change is happening in the
medical device sector.
It is known
that United States is the biggest global importer in this sector and verifying
its top 5 importers partners of “Instruments, appliances for medical, etc
science, nes” (UN Comtrade HS901890), one will find that two of them in the last four years are
developing countries: Costa Rica and Dominican Republic.
The exports of HS901890 from Costa Rica to the USA sum
twice the exports from Canada and Japan to the USA combined and it is higher
than the export from Ireland (another top 5 import partner of the USA) to the
USA. In the “Case of Costa Rica – Facts and Implications for Trade Policy”,
presented by the Minister of Foreign Trade from Costa Rica in the WTO public
forum, September 19, 2011, we can verify Costa Rica’s evolution on the
structure of industrial exports since 1994 until 2010 and it shows
that it is possible for countries in development to improve its industries,
technologies and R&D departments. In 2010, Costa Rica’s top 10 export
products included microchips, medical prosthesis, pharmaceutical, computer
parts and transfusion equipment. In 2003, Costa Rica was consolidated as one of
the main Foreign Direct Investment (FDI) locations in Latin America and in
2010, the first high-tech exporter in the continent.
The recipe of this success is simple and well known:
political and economy stability (hence, FDI attraction), solid export platform,
investments in human resource base (education, language skills), good
geographic location (in the middle of America and close to the USA market). But
according to the CIA – World Factbook of 2012, there are still things remaining
to be improved like bureaucracy and legal uncertainties.
For the studies of international trade, however,
exports are considered as belonged to the country of origin. But if we make a
deeper analysis, we will see that, in the case of Costa Rica, the majority of
the medical device companies are multinationals with international resources
and not a national initiative. Nevertheless, even if the main investments are
from abroad and there has to be royalties and profit transmission, Costa Rica
is responsible for the attractiveness of foreign direct investments. If this
country wouldn’t have created reliable conditions for multinationals, they
wouldn’t have been established in its territory. With the construction of this
scenario, Costa Rica is earning international visibility and confidence, which
are responsible for the creation of jobs and national development.
In the case of Brazil, country where Biokyra is
established, the production in this area is still shy.
The Brazilian
capacity utilization is insufficient to supply its demand. One of the reasons
why this happens is the size of the market. Brazil is the 5th biggest country
in population and it has a public health care that attends everyone. Apart of
its demand and needs, the national production and offer are still taking their
first steps. Considering that the USA is the biggest export and import player
in this sector, Brazil is its 11th biggest export partner, but only its 32nd
import partner (based on HS901890, UN Comtrade). The reasons why Brazilian
medical device industry is falling behind other developing countries industries
are the same reasons for the entire Brazilian industrial complex. Basic
investments needs in energy, infrastructure, transportation, and logistics are
still an obstacle for Brazilian development. Bureaucracy, slowness in legal
procedures, high taxes and low-qualified labor represent some other
difficulties faced by entrepreneurs, export/import and logistics professionals.
As one shall see in the graphic, the deficit between
imports and exports is still huge. In 2010, while Brazilians were exporting
U$600 million, they were importing more than U$3 billion of this kind of
medical device. In the graphic, based on HS901890, we can see clearly the
difference between imports and exports. Nevertheless, there are
governmental programs and financial aid to promote any kind of export in
Brazil. In the case of medical devices, the program is called “Brazilian Health
Devices”, which is supported by ABIMO
(Brazilian Association of Medical Devices and Equipment), in association with Apex-Brasil (Brazilian Agency of Export
and Investments Promotion). It brings together 140 enterprises of this sector
and it has helped increase international sales in 260%. Stimulus to get the FDA
certificate, internationalization program, strategic planning and international
trade missions are examples of actions that “Brazilian Health Devices”
provides. Even if there are still many obstacles to be overcome, Brazilian governmental
is trying to make Brazil a great nation for R&D and technologies
investments.
Friday, October 19, 2012
Strategic Action in a Global Market
International market is an opportunity for business
growth. Enterprises become more profitable and competitive once they have to
face global market and foreign competitors. In the 21st century, companies
can’t escape from internationalization or the effects that it causes in national
economies. The health industry is no different. In 2009, the sales in this
sector reached U$289 billion worldwide and it is expected to reach U$487
billion in 2016, with an annual growth of 7%; there are more than 27 thousands
enterprises around the world, employing more than one million people.
Since it is an industry that requires new
technologies, high investments in R&D and a highly qualified team, most of medical devices production concentrates in developed countries.
As shown in the graphic, the global top 5 exporters[1] of
“Instruments, appliances for medical, etc science, nes” concentrate more than half of
exports, which reached more than U$40 billion in 2011.
Once an enterprise decides to internationalize, it has
to consider: if its country belongs to any free trade area or bilateral
agreement (it is usually easier to export to these countries); size and growth
rate of the market, national and international competitors in the destination
country, as well as national taxes of imports, definition of a strategy,
logistics of exports. One important detail one shall consider, when
deciding to export, is the non-tariff barrier. Even when there is no
significant tariff barrier or national taxes of imports, there might be a
barrier like quotas, technical or sanitary standards, administrative and
bureaucratic delays at the entrance. Due to a strong international regulatory system
about tariff barriers, countries are adopting non-tariff barriers as a way to
protect their national industry and, in the same time, not “disobey” standards
and rules in international trade.
The strategy for enterprises in this sector has had to
be reviewed after what happened to the global economy in 2008 and 2009. Big
medical devices companies are now paying attention to China, India and Brazil.
Looking at the size of the population and the way they are gaining higher buying
power, companies are trying to learn and understand how to approach these
markets.
But, like in any other sector, selling a medical
device in a developed country is not the same as selling it in a developing
country. The different scenarios and culture complicate the sale of a standard
product. Therefore, products are been created specifically for these emerging
markets. Instead of selling the same product to developing and developed
countries, companies are creating products for emerging markets. We have to
consider that not all the companies are taking this step. Most of them are wary
and skeptical about the returns they will obtain taking this strategy. There
are a few enterprises that are already doing business in these countries, especially
the European ones.
Like in any other company that has to customize their
product according to the different countries or areas, there has to be two (or
more) strategies and two (or more) lifecycles working in the same organization.
So, it is important to have a good marketing team that deeply studies and
examines the target market.
References: http://comtrade.un.org/
[1] One shall consider that
Mexico belongs to the North America Free Trade Agreement (NAFTA); the USA is
the biggest importer in the world representing 20% of the world’s demand and
Mexico is its biggest provider.
Friday, September 28, 2012
Medical Device Development: step-by-step
The
development of medical devices requires rigorous regulatory requirements,
careful planning and strategies for commercialization, pursuit for new
technology and improvements. While we
see various commercially successful medical devices in the market, no
comprehensive development model has been published.
Apart
from the company size and the market they share, medical devices companies have
a very similar strategy to develop and get their products to market. Scientific
researches about medical device project and development process are very good
references to the product development strategy of the companies and help them
to improve and validated their models.
Stanford
University’s researchers have studied the process of how medical technology is
brought to market. The model developed by Researchers
at the Stanford University Program in Biodesign divides the development in six phases:
“PREDEVELOPMENT, PHASE 0”
The clinical need must me
identified and understood by the inventors and devices companies, this phase
can be achieved, by direct observations, talking to patients or doctors. A
large list of medical needs is made based on market size, clinical impact, and
intellectual property.
“PHASE I: INITIATION,
OPPORTUNITY AND RISK ANALYSIS”
When the need is identified,
a review of all the perspectives is made. Market size, intellectual property,
competitive structure, financial resources, regulatory requirements, likewise
defining strategies.
“PHASE II: FORMULATION,
CONCEPT AND FEASIBILTY”
Concept definition and
feasibility take place in this phase, as well as strategies definitions. To
accomplish the concept definition, both brainstorming sessions and 3D CAD occur.
It is frequent to see the team’s marketing and the team’s R&D meeting with
potential users (doctors, nurses, technicians, patients and others) to catch
the clients’ attention. In addition, in Phase II we see the team of devices
companies defining and analyzing the risks that can happen during the project.
“PHASE III: DESIGN AND
DEVELOPMENT, VERIFICATION AND VALIDATION”
In this phase, the team
creates a test to verify and validate the concept, although the tests only
occur in Phase IV. These tests involve both engineering and quality tests. Many
steps of this phase are conducted and reviewed by members of clinical
regulatory departments, including FDA (in the USA). Likewise, the production of
documentary records.
“PHASE IV: FINAL VALIDATION
AND PRODUCT LAUNCH PREPARATION”
Final validation, final
product design and regulatory approval take place in this part of the process
that brings medical devices to market. Final product design must conform to
ergonomics standards. Quality system
starts working to define, document and approve the business, which contains
both product and administrative perspective.
“PHASE V: PRODUCT LAUNCH AND
POST-LAUNCH ASSESSMENT”
Before the launch, doctors
will have received training to use the new device. Once it has been approved
that the medical device is successful, both launch and distribution will take
place. With the new device been used widespread, literature and indications of
use are made and approved by FDA (in the USA). R&D has a main role in this
phase since the device requires continuing improvements.
Stanford University Program in Biodesign research was based in more than 80
experts in the private and public sectors, including industry representatives
and FDA officials.
Biokyra follows its own
product development process that is generically very similar to Stanford Model.
Each country has its own regulatory system so that the product development
process should adapt to those particularities.
References: http://medicaldesign.com/mag/
Tuesday, August 21, 2012
Physicians and engineers: boosting communication
Observing the experiences acquired from an
engineer studying to become a physician, a question comes to mind: how ally the
acknowledgments from two areas apparently and practically too different? Some
institutions are promoting symposiums to find a link between medical doctors
and engineers aiming to achieve a better communication and consequently develop
better projects in the future.
The main issue consists in two different mindsets; while surgeons are looking for solutions to improve their acquired skills, engineers are trying to be more innovative developing devices with new capabilities able to accomplish the same task. The fact is that the medical expectation is different from the engineered progress. The engineers have a challenge between the innovation and the conventional medical practice.
According to Dan Buckland, an engineer who is training to become a physician, communication between physicians and engineers can be sometimes a little noisy because of the way they are trained: “Engineers learn to always approach a problem from first principles, whereas physicians are trained to see problems from a categorical view”. This happens due to their distinct training, point of view and also because of their experiences and perspectives.
Improving communication between both parts will drive to an optimum way of finding solutions. To work in cooperation, surgeons should realize that engineers are trained to solve problems by optimizing the results and they are not going to consider “surgeons’ way of doing” as optimal. Likewise, the experience of senior and junior surgeons is essential to help engineers to design innovative products to save lives and assist surgical procedures to become faster and more efficient.
References:http://medgadget.com/2012/08/how-surgeons-and-engineers-can-communicate-better.html?utm_source=feedburner&utm_medium=feed&utm_campaign=Feed%3A+Medgadget+%28Medgadget%29
The main issue consists in two different mindsets; while surgeons are looking for solutions to improve their acquired skills, engineers are trying to be more innovative developing devices with new capabilities able to accomplish the same task. The fact is that the medical expectation is different from the engineered progress. The engineers have a challenge between the innovation and the conventional medical practice.
According to Dan Buckland, an engineer who is training to become a physician, communication between physicians and engineers can be sometimes a little noisy because of the way they are trained: “Engineers learn to always approach a problem from first principles, whereas physicians are trained to see problems from a categorical view”. This happens due to their distinct training, point of view and also because of their experiences and perspectives.
Improving communication between both parts will drive to an optimum way of finding solutions. To work in cooperation, surgeons should realize that engineers are trained to solve problems by optimizing the results and they are not going to consider “surgeons’ way of doing” as optimal. Likewise, the experience of senior and junior surgeons is essential to help engineers to design innovative products to save lives and assist surgical procedures to become faster and more efficient.
References:http://medgadget.com/2012/08/how-surgeons-and-engineers-can-communicate-better.html?utm_source=feedburner&utm_medium=feed&utm_campaign=Feed%3A+Medgadget+%28Medgadget%29
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