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THE EMERGENCY OF RESEARCH AND IMPLEMENTATION
OF THE BEST WATER WASTE MANANGENT IN THE MARITIME
INDUSTRY OF THE WORLD
Dr. Cristina Steliana Mihailovici1
Abstract
In a world of continue business development in all the industries and domains we assist in the
last years at a disastrous impact of ours actions that put the economic results in front of the protection
and respect of the natural environment.
The maritime and offshore industry is focused more in how more profit can obtain, that how to
invest in the protections against the pollution of the seas and oceans of the World. Millions maritime
transports with a variety cargo bulk transported in tanks or containers, millions of TEUs in one day.
I am economist and I have a doctorate in nautical engineering – INCOTERMS 2010. I know well
from analysis that the scope of one maritime transport is the economical profit, it’s true. But what about
the ballast water of every maritime transport, what about her disastrous effects on the waters World?
When I was children I was a fighter against the pollution of the seas. I wanted to become a researcher in
biology marine and I never abandoned the protection of the seas and of the peoples that working on the
sea. We all depend for the source of water. We are made from a big percent of water. Water is life. We
must to stop a second to analyse the financial profit and to compare with the catastrophically impacts on
the maritime environment.
The devastating consequences not hesitate to appear: invasive species, marine life is dying and
the whole marine ecosystem is seriously affected. The last statistics show us that the rate of bio-
invasions is continuing to increase and new areas are being invaded all the time. Let’s put the red code
of emergency against the pollution of our lives!
Key Words: ballast water management, pollution, treatment methods, IMO, Polar Code, risk,
maritime safety
1. Introduction
We all know that Water is life and represents the large habitat in the World. In the last years we
assist at a huge negative impact of the maritime industry in all marine environment of the World.
1cristina_mihailovici@yahoo.es, https://uk.linkedin.com/in/cristina-steliana-mihailovici-54955320
Natural barriers, changes in natural temperature, and salinity, balance drastically change in the
last years, since million years.
Invasions, infiltrations, toxic algae,
jellyfish and many others factors and facts– all
this represents a natural catastrophe that is
destroying the ecosystem. Atlantic Ocean,
Caspian Sea, Black Sea … and step by step all
the water of our Planet.
Water tanks with millions bacteria’s
which discharge the water in the natural
environment.
But what are the consequences?
Source 1:“Jellyfish in the Black Sea”, Cristina Steliana Mihailovici
The pollution of the water, the “alien invader” affects all economy of the World. The fishes are
dying affecting the fishing industry, the climate change affecting all the evolution of the marine biological
environment which tends to be the worst of the last decency.
No time to lose! How we can control, help and improve the Ballast Water Management?
2. Ballast Water Management
What is the ballast water, but the ballast voyage? Water is travelling from port to port: is taken on
at one port when cargo is unloaded and discharged at another port when the ship receives cargo. Ballast
voyage is the ballast water used during the voyage to provide stability and manoeuvrability.
Every maritime transport have on board ballast water, a potential factor for introduction of non-
native organisms - called bio-invaders, alien species, non-indigenous species or exotic species - into the
port of discharge.
Exists a number of methods to prevent and treat the ballast water. In this moment no single
ballast water management method has been able to clean and remove all organisms from ballast tanks.
A solution could be a combination of different methods of ballast water management.
The researchers investigate all possible efficient methods: different ships – different solutions.
2.1. Ballast Water Treatment Technology and methods
The Nature ask day by day more effective solution to treatment of ballast water, more
secure environment, more implications from all of us.
Ballast water treatment options is influenced by a number of general factors, like: cost,
enforcement, the effectiveness of the method, and the risks the treatment may pose to human
health and the environment.2
Many treatment methods require that ships be equipped with the necessary techniques
and systems or that new ships have this special equipment included in their design. Any
treatment method should provide efficient results that can be monitored by port authorities and
experts.
2.1.1. The Ballast Water Exchange
This method is efficiently and effective because organisms from coastal waters are
unlikely to survive in the ocean.
The advantages to ballast tank exchange are multiples:
• Because it is done while the ship is en route, relatively little time is lost during the
voyage.
• No additional equipment or operator training is needed for ballast exchange so the
capital costs are low and it is a simple process to implement.
• Enforcement of ballast exchange laws can occur to some degree because open ocean
waters have higher salinity levels than coastal waters and this difference can be
detected by port authorities.
By the other side, exist different negative points, like:
• the tank can not be readily removed because organisms stuck to the sides of the tank or
structural supports;
• difficulty to completely remove sediments and residual water from the bottom of ballast
tanks;
• it is unsafe for a ship to exchange ballast water during stormy or rough seas, because
organisms could remain inside the ballast tanks and may be discharged at a later time
into ports and harbours, in case the exchange fails to remove all organisms.
Like any method or technique, the effectiveness of ballast water exchange could be
improved by redesigning ballast tanks and pumping systems. Currently, most ballast tanks have
one pipe that pumps water in both directions, but not at the same time.
The researchers conclude that with the addition of another pipe, ballast exchange could
be achieved by continual flushing of the tank with one pipe bringing water into the tank and
another pipe allowing water to exit the tank. This would be a safer means of exchanging ballast
because the tanks would contain water at all times. Remove the residual water and sediments
from the bottom of ballast tanks represents another option of improving current ballast tank
flushing . Pumps, which are relatively inexpensive, could be installed in the bottom of ballast
2The cost of a treatment method represents a sum of many costs: the expense of the equipment, the crew needed to operate the
treatment equipment, and the time needed for the treatment operation.
tanks to remove these residual materials, reducing the risk of introducing a non-native species;
ballast tanks could be redesigned with a sloping bottom or other structure that could allow
sediment and water to drain into a pump.
2.1.2. Mechanical methods
The mechanical methods can be the filtration, the re-ballasting, the dilution and the
cyclonic separation, among others.
The filtration, for example, makes it possible to eliminate big particles as macroscopic algae,
but it doesn’t prevent from loading small organisms. Wastes would be left in the ballast intake
area, but the necessary cost for this infrastructure could be very high.
Re-ballasting consist of doing the change of ballast water in deep waters, with 2000 meters
or more sounding line, but it avoids the superficial water, the dredging areas and the places
where there are illness or plankton outbreaks.
Dilution caused by overflowing has to be done on the high sea; through the entry of water
with the ballast pump and then we allow it overflows by the deck, at least a third of tank total
volume. This method entails the risk of organisms wouldn’t be entirely expelled.
2.1.3. Physical methods
The physical methods include the water treatment with ultraviolet radiation, heat
treatment, ultrasonic treatment or water treatment with ions generated electronically.
The effect of the water treatment with ultraviolet radiation changes, it depends on the kind of
organisms, because some of them are very resistant to UV radiation; it could be a very
effective method if it were combined with the filtration. It has not toxic or damaging side
effects for pipes, pumps or coating.
The heat treatment involves rising the ballast water temperature above 40º C for 8 minutes,
since these conditions are lethal to practically all the organisms. Reaching this temperature
depends on there being heating sources on board in order to treat the ballast water during
the crossing.
The ultrasonic treatment for liquids uses high frequency energy to cause a vibration in the
liquid. When the liquid is exposed to these vibrations, it causes cavitation (formation,
expansion and implosion of microscopic gas bubbles in the liquid). As the ultrasonic energy
goes into the liquid, the gas bubbles grown until they have a critical size and they implode. If
the cavitation is sufficiently intense, it will break the cytoplasmic membranes.
The electrolytic generation of metallic ions, specifically copper and silver ions, has, in
principle, a highly effectiveness to sterilize the water, but some organisms can increase their
tolerance to high concentrations of copper and silver, so this turns the utilization of this
method into a useless issue. Furthermore, the concentrations of these elements in the water
could cause adverse environmental consequences. The application of this system has yet
been rejected some time ago.
2.1.4 Chemical methods
Chemical treatments, like, for example, chlorine, are refused for use, because water treated by
this way keep certain biocide characteristics that could affect later other species.
Throughout time, mechanical methods as well as physical, chemical and biological ones have
been considered, in order to solve the potentials problems of biological pollution, which could be
caused by ballast water.
Chemical biocides may be used to treat ballast water and prevent the introduction of non-native
species. The specific type of biocide must be chosen very carefully to avoid harming humans or
the environment. Biocides are usually shipped and stored in the form of a concentrated solid or
liquid, so they can easily be stored onboard a ship. The machines for applying biocides are
reliable and need little maintenance, but their size may be a limitation when installing them
aboard ships. A major concern with the use of biocides is the safety of the crew members who
handle the chemicals. Because other dangerous chemicals that are used for lubricants and
other functions on the ship must also be handled, training the crew to safely use biocides should
be relatively simple. Another concern is whether residual biocides have the potential of corroding
ballast tanks, pipes, pumps, and other structures. Some of the biocides that have been studied
for ballast water treatment are discussed below. Two general types of biocides exist: oxidizing
and non-oxidizing. Oxidizing biocides include chlorine, bromine, and iodine. These chemicals
act by destroying cell membranes which leads to cell death. Chlorine is commonly used to treat
municipal drinking water, but recent studies suggest that it may not be as safe to humans as
once thought. There is also a possibility that oxidizing biocides may react with sea water to form
toxic chemicals. Because of these reasons, it may not be safe to release water treated with
oxidizing biocides into the environment. Ozone is an oxidizing biocide that has been used to
disinfect water supplies since the late 1800’s.
Ballast water is treated as it flows through a device that bubbles ozone gas into the water. Most
of this gas dissolves into the water, decomposes and reacts with other chemicals in the ballast
water to kill organisms. Ozone gas is toxic to humans and contributes to smog in the lower
atmosphere, so any ozone that does not dissolve must be destroyed before it is released into the
atmosphere. Ozone is especially effective at killing microscopic organisms, but is not as effective
at eliminating larger organisms. Combining ozone with a treatment method that successfully
eliminates larger organisms would be more effective than using ozone as a solitary treatment.
For all of the ballast water treatment methods investigated, there is the potential to
reduce risks through appropriate training and safety procedures.
For some of the methods, safety features have already been considered and are in place. If the
treatment systems are installed on new ships additional safety features could be considered
during ship design.
3. Ballast water conventions and regulations
In the last years the laws regarding ballast water treatment are more and more strictly. This is
because many of treatment methods work by killing the organisms in ballast water, the method itself may
pose a risk to human health or to the environment if the treatment is not properly contained in the ballast
tanks.
How can be improves the environment of maritime safety in this conditions?
IMO's Marine Environment Protection Committee3
receive from many years different cases and
different situations of pollution of marine water. In the last
decades the expanded trade and traffic volume continue to
increase, so the problem of invasive species in ships’
ballast water is bigger day by day. The effects in many
areas of the world have been devastating. Quantitative data
show that the rate of bio-invasions is continuing to increase
at an alarming rate and new areas are being invaded all the
time.
Source 2: Black Sea, Cristina Steliana Mihailovici
We must to prevent the transfer of invasive species and coordinate an effective response to
invasions. This require cooperation and collaboration among governments, economic sectors, non-
governmental organizations and international treaty organizations.
One of the powerful conventions is the UN Convention on the Law of the Sea4
which provides
the global framework. This convention is requiring States to work together to prevent, to reduce and to
control pollution of the marine environment.
IMO has been at the front of the international effort by taking the lead in addressing the transfer of
invasive aquatic species (IAS) through shipping.
On 13 February 2004, after more than 14 years of complex negotiations between IMO Member
States, the International Convention for the Control and Management of Ships' Ballast Water and
Sediments5
was adopted by consensus at a Diplomatic Conference held at IMO Headquarters in London.
“Our duty to our children and their children cannot be over-stated. I am sure we would all wish
them to inherit a world with clean, productive, safe and secure seas – and the outcome of this
Conference, by staving off an increasingly serious threat, will be essential to ensuring this is so”, affirmed
on Conference the Secretary-General of IMO.
This Convention require all ships to implement a Ballast Water Management Plan.
3 MPEC
4 Article 196
5 BWM Convention
Exist the option to take additional measures which are subject to criteria set out in the Convention
and to IMO guidelines, but its a must that all ships will have to carry a Ballast Water Record Book and will
be required to carry out ballast water management procedures to a given standard. In April
2004, MEPC approved a programme for the development of guidelines and procedures for uniform
implementation of the BWM Convention, listed in
Conference resolution 1, including additional
guidance required but not listed in the resolution.
In July 2005, the programme was further
expanded to develop and adopt 14 sets of
Guidelines, the last one being adopted by
resolution MEPC.173(58) in October 2008. The
Guidelines and other relevant guidance
documents can be found on IMO website.
Source 3: Maritime&Coastguard Agency 2016 / gov.uk
During the Convention development process, considerable efforts were made to formulate
appropriate standards for ballast water management: the ballast water exchange standard and the ballast
water performance standard. Ships performing ballast water exchange shall do so with an efficiency of 95
per cent volumetric exchange of ballast water and ships using a ballast water management system
(BWMS) shall meet a performance standard based on agreed numbers of organisms per unit of volume.
The GESAMP Ballast Water Working Group6
, a technical group of experts, reports to the
Organization proposal or significant risks in accordance with the criteria specified in the Procedure for
approval of ballast water management systems that make use of Active Substances.
The Convention was signed by 30 states, representing 35 per cent of world merchant shipping
tonnage and the approval and certification of modern ballast water treatment technologies have removed
the major barriers to the ratification of the instrument and a number of additional countries have indicated
their intention to accede to this Convention in the near future.
4. Polar Code and the ballast water management
In the last years the Arctic Ocean require more and more attention regarding marine safety and
environment protection.
This emergency is on the way to be solved from May 2015, when International Maritime
Organization (IMO) initiates the implementation phase for the Polar Code.
The Polar Code establishes binding or mandatory international standards for new and existing
commercial carriers and passenger ships operating in Arctic and Antarctic waters. The Code covers ship
6 GESAMP-BWWG
structural standards ; required marine safety equipment ; training and experience standards for the ship
officers and crew ; and environmental rules regarding oil, noxious liquids, sewage and garbage. All
maritime states will have the challenge of implementing the Polar Code in their national legal systems by
1 January 2017.
Source 4: World Maritime News Staff, Infographic: IMO
During the Code’s implementation phase the Arctic states share the challenge and responsibility
of showing strong leadership and articulating to a global community the importance and immediacy of
international safety and environmental rules for polar ships.
The Polar waters asked many requirements that must be very strong respected and protected,
like:
• control of pollution by noxious liquid substances in bulk, prohibiting any discharge into the sea of
noxious liquid substances, or mixtures containing such substances;
• prevention of pollution by oil, including discharge restrictions prohibiting any discharge into the
sea of oil or oily mixtures from any ship, as well as structural requirements including protective
location of fuel-oil and cargo tanks;
• prevention of pollution by garbage from ships, adding additional restrictions to the permitted
discharges.7
Only certain cargo residues, classified as not harmful to the marine environment, can
be discharged.
The Polar Code represents a set of amendments to two existing IMO safety and environmental
protection instruments - the International Convention for the Safety of Life at Sea (SOLAS) and the
International Convention for the Prevention of Pollution from Ships (MARPOL) - to adapt and enhance
ship systems for operations in both Arctic and Antarctic waters.
The IMO is seeking to create a uniform, non-discriminatory set of rules and regulations that will
result in a level playing field for all marine operators.
It's sure that starting with 1 January 2017 to dump oily waste, oil or noxious materials into Arctic
or Antarctic waters, it will be illegal.
But what about the use of heavy fuel oil by ships travelling in Arctic waters? What about the ships
permitted to sail in the Arctic, many of them non-ice-class ships?
Are sufficient all rules adopted with this version of Polar Code? Could this implementation solve
all pollution problems in Polar Area?
One of the existing environmental groups, “Friends of the Earth”, that has been monitoring the
Polar Code process, asked attention to IMO for some omissions in the new standards, like failure to
restrict discharges of grey-water and failure to address underwater noise or prevention of invasive
specie's introduction.
Polar Code is a huge IMO project of several years in elaborating and implementing and is a
complex process. In my opinion, it represents a principal subject for debate during next years, for experts
and scientists, to research and improve by finding new solutions to new problems meet in maritime safety
and environment protection in Polar waters.
5. Conclusions
"The vehicle of nature" or “blood of the nature”8
must be protected by ballast water, one of the
principal way of biological invasion of the world.
Many of the treatment methods are still in the phase of experiments. Mechanical, physical,
chemical and biological methods have been developed and tested to minimize the transport of organisms
into the ballast water, but, some of these methods have also turned out to be damaging to marine
environment because appear the risk to introduce the chemical products in the water.
7 food wastes shall not be discharged onto the ice and discharge into the sea of comminuted; ground food wastes is only permitted
under specific circumstances including at a not less than 12 nautical miles from the nearest land, ice-shelf or fast ice
8 Leonardo da Vinci
The organisms transfer in the ballast water is, in the first decade of 21st century, one of the most
serious environmental problem worldwide and to solve it, IMO approved a ballast water sterilization
system based on the Advanced Oxidation Technology9
, which complies with the rules of this institution
and which came into effect on 2009.
This agreement is very important for trying to avoid the arrival of invading species in the oceanic
ecosystems, but it is very important the commitment and implication of all the countries in this.
The climate change, like result to pollution of Polar System affect all our World. In this way, IMO
elaborate and implement starting with 1 January 2017, the Polar Code, a huge project of several years in
elaborating it.
In my opinion, Polar Code represents a principal subject for debate during next years, for experts
and scientists, to research and improve by finding new solutions to new problems meet in maritime safety
and environment protection in Polar waters.
Ballast water exchange represents a big problem and a challenge to solve for the researchers
and scientist of maritime domain and not only for them, for all the World.
For all of ballast water treatment methods investigated, there is the potential to reduce risks
through an adequate training and safety procedures. In some cases, safety features have already been
considered and are in place. If the treatment systems are installed on new ships additional safety features
could be considered during ship design.
Installing new technologies or redesign ships could be more expensive, so ship owners are
sceptic to use a new technology unless it is proven effective and efficiently.
This could be a reason more for delays in adopting regulations and implementing changes in
how ships manage ballast water releases.
The implementation of the best water management asked maritime scientists, shipping
companies and international organizations more research, more investment, development and dedication
in the next period to improve existing treatment methods and develop new methods.
We all owe to future generations the protection and respect of marine environment.
References
1. Carlton, James T. and Bridget A. Holohan, eds. March 1998. USA Ballast Book 1998-1999:
Ballast Research in the United States of America.
2. Deggim, H. “Polar Code PPT” (PDF). Retrieved 2012-06-29
3. "Environmental Groups: IMO Polar Code Too Weak” - Marine Pollution Control. Retrieved 25
November 2014.
9 AOT
4. Haun, Eric (21 November 2014). "Environmental Groups: IMO Polar Code Too Weak”, Marine
Link. Retrieved 25 November 2014.
5. IMO. “Shipping in polar waters”, www.imo.org. Retrieved 2015-10-04.
6. IMO. “Guidelines for ships operating in Arctic ice-covered waters” (PDF). Retrieved 2012-06-29.
7. IMO. “Guidelines for ships operating in Polar waters” (PDF). Retrieved 2012-06-29.
8. IMO. “Report of the Working Group” (PDF). Retrieved 2012-06-29.
9. IMO. “DE 56/25” (PDF). Retrieved 2012-06-29.
10. Mathiesen, Karl (November 21, 2014), “Polar code agreed to prevent Arctic environmental
disasters”, The Guardian, archived from the original on 2014-11-23. Retrieved Nov 24, 2014.
11. National Research Council. 1996. Stemming the Tide: Controlling Introductions of Non -
indigenous Species by Ships’ Ballast Water. 141 pages.
12. Oemcke, Darren J. and J. (Hans) van Leeuwen. March 1998. Potential of ozone for ballast water
treatment. Published by CRC Reef Research Centre; Canberra, Australia.
13. On the International Environmental Agenda: Garbage, Ballast Water, and Engine Emissions.
Marine Log 75(896): pp15-19. March 1995.
14. "Polar Code too weak to properly protect polar environments from increased shipping activity”,
Seas at risk. 21 November 2014. Retrieved 25 November 2014.
15. http://www.imo.org/en/About/Conventions/StatusOfConventions
16. http://www.marineships.net/maritime-law/international-code-of-safety-for-ships-operating-in-polar-
waters-polar-code/

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THE EMERGENCY OF RESEARCH AND IMPLEMENTATION OF THE BEST WATER WASTE MANANGENT IN THE MARITIME INDUSTRY OF THE WORLD

  • 1. THE EMERGENCY OF RESEARCH AND IMPLEMENTATION OF THE BEST WATER WASTE MANANGENT IN THE MARITIME INDUSTRY OF THE WORLD Dr. Cristina Steliana Mihailovici1 Abstract In a world of continue business development in all the industries and domains we assist in the last years at a disastrous impact of ours actions that put the economic results in front of the protection and respect of the natural environment. The maritime and offshore industry is focused more in how more profit can obtain, that how to invest in the protections against the pollution of the seas and oceans of the World. Millions maritime transports with a variety cargo bulk transported in tanks or containers, millions of TEUs in one day. I am economist and I have a doctorate in nautical engineering – INCOTERMS 2010. I know well from analysis that the scope of one maritime transport is the economical profit, it’s true. But what about the ballast water of every maritime transport, what about her disastrous effects on the waters World? When I was children I was a fighter against the pollution of the seas. I wanted to become a researcher in biology marine and I never abandoned the protection of the seas and of the peoples that working on the sea. We all depend for the source of water. We are made from a big percent of water. Water is life. We must to stop a second to analyse the financial profit and to compare with the catastrophically impacts on the maritime environment. The devastating consequences not hesitate to appear: invasive species, marine life is dying and the whole marine ecosystem is seriously affected. The last statistics show us that the rate of bio- invasions is continuing to increase and new areas are being invaded all the time. Let’s put the red code of emergency against the pollution of our lives! Key Words: ballast water management, pollution, treatment methods, IMO, Polar Code, risk, maritime safety 1. Introduction We all know that Water is life and represents the large habitat in the World. In the last years we assist at a huge negative impact of the maritime industry in all marine environment of the World. 1cristina_mihailovici@yahoo.es, https://uk.linkedin.com/in/cristina-steliana-mihailovici-54955320
  • 2. Natural barriers, changes in natural temperature, and salinity, balance drastically change in the last years, since million years. Invasions, infiltrations, toxic algae, jellyfish and many others factors and facts– all this represents a natural catastrophe that is destroying the ecosystem. Atlantic Ocean, Caspian Sea, Black Sea … and step by step all the water of our Planet. Water tanks with millions bacteria’s which discharge the water in the natural environment. But what are the consequences? Source 1:“Jellyfish in the Black Sea”, Cristina Steliana Mihailovici The pollution of the water, the “alien invader” affects all economy of the World. The fishes are dying affecting the fishing industry, the climate change affecting all the evolution of the marine biological environment which tends to be the worst of the last decency. No time to lose! How we can control, help and improve the Ballast Water Management? 2. Ballast Water Management What is the ballast water, but the ballast voyage? Water is travelling from port to port: is taken on at one port when cargo is unloaded and discharged at another port when the ship receives cargo. Ballast voyage is the ballast water used during the voyage to provide stability and manoeuvrability. Every maritime transport have on board ballast water, a potential factor for introduction of non- native organisms - called bio-invaders, alien species, non-indigenous species or exotic species - into the port of discharge. Exists a number of methods to prevent and treat the ballast water. In this moment no single ballast water management method has been able to clean and remove all organisms from ballast tanks. A solution could be a combination of different methods of ballast water management. The researchers investigate all possible efficient methods: different ships – different solutions. 2.1. Ballast Water Treatment Technology and methods The Nature ask day by day more effective solution to treatment of ballast water, more secure environment, more implications from all of us.
  • 3. Ballast water treatment options is influenced by a number of general factors, like: cost, enforcement, the effectiveness of the method, and the risks the treatment may pose to human health and the environment.2 Many treatment methods require that ships be equipped with the necessary techniques and systems or that new ships have this special equipment included in their design. Any treatment method should provide efficient results that can be monitored by port authorities and experts. 2.1.1. The Ballast Water Exchange This method is efficiently and effective because organisms from coastal waters are unlikely to survive in the ocean. The advantages to ballast tank exchange are multiples: • Because it is done while the ship is en route, relatively little time is lost during the voyage. • No additional equipment or operator training is needed for ballast exchange so the capital costs are low and it is a simple process to implement. • Enforcement of ballast exchange laws can occur to some degree because open ocean waters have higher salinity levels than coastal waters and this difference can be detected by port authorities. By the other side, exist different negative points, like: • the tank can not be readily removed because organisms stuck to the sides of the tank or structural supports; • difficulty to completely remove sediments and residual water from the bottom of ballast tanks; • it is unsafe for a ship to exchange ballast water during stormy or rough seas, because organisms could remain inside the ballast tanks and may be discharged at a later time into ports and harbours, in case the exchange fails to remove all organisms. Like any method or technique, the effectiveness of ballast water exchange could be improved by redesigning ballast tanks and pumping systems. Currently, most ballast tanks have one pipe that pumps water in both directions, but not at the same time. The researchers conclude that with the addition of another pipe, ballast exchange could be achieved by continual flushing of the tank with one pipe bringing water into the tank and another pipe allowing water to exit the tank. This would be a safer means of exchanging ballast because the tanks would contain water at all times. Remove the residual water and sediments from the bottom of ballast tanks represents another option of improving current ballast tank flushing . Pumps, which are relatively inexpensive, could be installed in the bottom of ballast 2The cost of a treatment method represents a sum of many costs: the expense of the equipment, the crew needed to operate the treatment equipment, and the time needed for the treatment operation.
  • 4. tanks to remove these residual materials, reducing the risk of introducing a non-native species; ballast tanks could be redesigned with a sloping bottom or other structure that could allow sediment and water to drain into a pump. 2.1.2. Mechanical methods The mechanical methods can be the filtration, the re-ballasting, the dilution and the cyclonic separation, among others. The filtration, for example, makes it possible to eliminate big particles as macroscopic algae, but it doesn’t prevent from loading small organisms. Wastes would be left in the ballast intake area, but the necessary cost for this infrastructure could be very high. Re-ballasting consist of doing the change of ballast water in deep waters, with 2000 meters or more sounding line, but it avoids the superficial water, the dredging areas and the places where there are illness or plankton outbreaks. Dilution caused by overflowing has to be done on the high sea; through the entry of water with the ballast pump and then we allow it overflows by the deck, at least a third of tank total volume. This method entails the risk of organisms wouldn’t be entirely expelled. 2.1.3. Physical methods The physical methods include the water treatment with ultraviolet radiation, heat treatment, ultrasonic treatment or water treatment with ions generated electronically. The effect of the water treatment with ultraviolet radiation changes, it depends on the kind of organisms, because some of them are very resistant to UV radiation; it could be a very effective method if it were combined with the filtration. It has not toxic or damaging side effects for pipes, pumps or coating. The heat treatment involves rising the ballast water temperature above 40º C for 8 minutes, since these conditions are lethal to practically all the organisms. Reaching this temperature depends on there being heating sources on board in order to treat the ballast water during the crossing. The ultrasonic treatment for liquids uses high frequency energy to cause a vibration in the liquid. When the liquid is exposed to these vibrations, it causes cavitation (formation, expansion and implosion of microscopic gas bubbles in the liquid). As the ultrasonic energy goes into the liquid, the gas bubbles grown until they have a critical size and they implode. If the cavitation is sufficiently intense, it will break the cytoplasmic membranes. The electrolytic generation of metallic ions, specifically copper and silver ions, has, in principle, a highly effectiveness to sterilize the water, but some organisms can increase their tolerance to high concentrations of copper and silver, so this turns the utilization of this method into a useless issue. Furthermore, the concentrations of these elements in the water could cause adverse environmental consequences. The application of this system has yet been rejected some time ago.
  • 5. 2.1.4 Chemical methods Chemical treatments, like, for example, chlorine, are refused for use, because water treated by this way keep certain biocide characteristics that could affect later other species. Throughout time, mechanical methods as well as physical, chemical and biological ones have been considered, in order to solve the potentials problems of biological pollution, which could be caused by ballast water. Chemical biocides may be used to treat ballast water and prevent the introduction of non-native species. The specific type of biocide must be chosen very carefully to avoid harming humans or the environment. Biocides are usually shipped and stored in the form of a concentrated solid or liquid, so they can easily be stored onboard a ship. The machines for applying biocides are reliable and need little maintenance, but their size may be a limitation when installing them aboard ships. A major concern with the use of biocides is the safety of the crew members who handle the chemicals. Because other dangerous chemicals that are used for lubricants and other functions on the ship must also be handled, training the crew to safely use biocides should be relatively simple. Another concern is whether residual biocides have the potential of corroding ballast tanks, pipes, pumps, and other structures. Some of the biocides that have been studied for ballast water treatment are discussed below. Two general types of biocides exist: oxidizing and non-oxidizing. Oxidizing biocides include chlorine, bromine, and iodine. These chemicals act by destroying cell membranes which leads to cell death. Chlorine is commonly used to treat municipal drinking water, but recent studies suggest that it may not be as safe to humans as once thought. There is also a possibility that oxidizing biocides may react with sea water to form toxic chemicals. Because of these reasons, it may not be safe to release water treated with oxidizing biocides into the environment. Ozone is an oxidizing biocide that has been used to disinfect water supplies since the late 1800’s. Ballast water is treated as it flows through a device that bubbles ozone gas into the water. Most of this gas dissolves into the water, decomposes and reacts with other chemicals in the ballast water to kill organisms. Ozone gas is toxic to humans and contributes to smog in the lower atmosphere, so any ozone that does not dissolve must be destroyed before it is released into the atmosphere. Ozone is especially effective at killing microscopic organisms, but is not as effective at eliminating larger organisms. Combining ozone with a treatment method that successfully eliminates larger organisms would be more effective than using ozone as a solitary treatment. For all of the ballast water treatment methods investigated, there is the potential to reduce risks through appropriate training and safety procedures. For some of the methods, safety features have already been considered and are in place. If the treatment systems are installed on new ships additional safety features could be considered during ship design.
  • 6. 3. Ballast water conventions and regulations In the last years the laws regarding ballast water treatment are more and more strictly. This is because many of treatment methods work by killing the organisms in ballast water, the method itself may pose a risk to human health or to the environment if the treatment is not properly contained in the ballast tanks. How can be improves the environment of maritime safety in this conditions? IMO's Marine Environment Protection Committee3 receive from many years different cases and different situations of pollution of marine water. In the last decades the expanded trade and traffic volume continue to increase, so the problem of invasive species in ships’ ballast water is bigger day by day. The effects in many areas of the world have been devastating. Quantitative data show that the rate of bio-invasions is continuing to increase at an alarming rate and new areas are being invaded all the time. Source 2: Black Sea, Cristina Steliana Mihailovici We must to prevent the transfer of invasive species and coordinate an effective response to invasions. This require cooperation and collaboration among governments, economic sectors, non- governmental organizations and international treaty organizations. One of the powerful conventions is the UN Convention on the Law of the Sea4 which provides the global framework. This convention is requiring States to work together to prevent, to reduce and to control pollution of the marine environment. IMO has been at the front of the international effort by taking the lead in addressing the transfer of invasive aquatic species (IAS) through shipping. On 13 February 2004, after more than 14 years of complex negotiations between IMO Member States, the International Convention for the Control and Management of Ships' Ballast Water and Sediments5 was adopted by consensus at a Diplomatic Conference held at IMO Headquarters in London. “Our duty to our children and their children cannot be over-stated. I am sure we would all wish them to inherit a world with clean, productive, safe and secure seas – and the outcome of this Conference, by staving off an increasingly serious threat, will be essential to ensuring this is so”, affirmed on Conference the Secretary-General of IMO. This Convention require all ships to implement a Ballast Water Management Plan. 3 MPEC 4 Article 196 5 BWM Convention
  • 7. Exist the option to take additional measures which are subject to criteria set out in the Convention and to IMO guidelines, but its a must that all ships will have to carry a Ballast Water Record Book and will be required to carry out ballast water management procedures to a given standard. In April 2004, MEPC approved a programme for the development of guidelines and procedures for uniform implementation of the BWM Convention, listed in Conference resolution 1, including additional guidance required but not listed in the resolution. In July 2005, the programme was further expanded to develop and adopt 14 sets of Guidelines, the last one being adopted by resolution MEPC.173(58) in October 2008. The Guidelines and other relevant guidance documents can be found on IMO website. Source 3: Maritime&Coastguard Agency 2016 / gov.uk During the Convention development process, considerable efforts were made to formulate appropriate standards for ballast water management: the ballast water exchange standard and the ballast water performance standard. Ships performing ballast water exchange shall do so with an efficiency of 95 per cent volumetric exchange of ballast water and ships using a ballast water management system (BWMS) shall meet a performance standard based on agreed numbers of organisms per unit of volume. The GESAMP Ballast Water Working Group6 , a technical group of experts, reports to the Organization proposal or significant risks in accordance with the criteria specified in the Procedure for approval of ballast water management systems that make use of Active Substances. The Convention was signed by 30 states, representing 35 per cent of world merchant shipping tonnage and the approval and certification of modern ballast water treatment technologies have removed the major barriers to the ratification of the instrument and a number of additional countries have indicated their intention to accede to this Convention in the near future. 4. Polar Code and the ballast water management In the last years the Arctic Ocean require more and more attention regarding marine safety and environment protection. This emergency is on the way to be solved from May 2015, when International Maritime Organization (IMO) initiates the implementation phase for the Polar Code. The Polar Code establishes binding or mandatory international standards for new and existing commercial carriers and passenger ships operating in Arctic and Antarctic waters. The Code covers ship 6 GESAMP-BWWG
  • 8. structural standards ; required marine safety equipment ; training and experience standards for the ship officers and crew ; and environmental rules regarding oil, noxious liquids, sewage and garbage. All maritime states will have the challenge of implementing the Polar Code in their national legal systems by 1 January 2017. Source 4: World Maritime News Staff, Infographic: IMO During the Code’s implementation phase the Arctic states share the challenge and responsibility of showing strong leadership and articulating to a global community the importance and immediacy of international safety and environmental rules for polar ships. The Polar waters asked many requirements that must be very strong respected and protected, like: • control of pollution by noxious liquid substances in bulk, prohibiting any discharge into the sea of noxious liquid substances, or mixtures containing such substances; • prevention of pollution by oil, including discharge restrictions prohibiting any discharge into the sea of oil or oily mixtures from any ship, as well as structural requirements including protective location of fuel-oil and cargo tanks;
  • 9. • prevention of pollution by garbage from ships, adding additional restrictions to the permitted discharges.7 Only certain cargo residues, classified as not harmful to the marine environment, can be discharged. The Polar Code represents a set of amendments to two existing IMO safety and environmental protection instruments - the International Convention for the Safety of Life at Sea (SOLAS) and the International Convention for the Prevention of Pollution from Ships (MARPOL) - to adapt and enhance ship systems for operations in both Arctic and Antarctic waters. The IMO is seeking to create a uniform, non-discriminatory set of rules and regulations that will result in a level playing field for all marine operators. It's sure that starting with 1 January 2017 to dump oily waste, oil or noxious materials into Arctic or Antarctic waters, it will be illegal. But what about the use of heavy fuel oil by ships travelling in Arctic waters? What about the ships permitted to sail in the Arctic, many of them non-ice-class ships? Are sufficient all rules adopted with this version of Polar Code? Could this implementation solve all pollution problems in Polar Area? One of the existing environmental groups, “Friends of the Earth”, that has been monitoring the Polar Code process, asked attention to IMO for some omissions in the new standards, like failure to restrict discharges of grey-water and failure to address underwater noise or prevention of invasive specie's introduction. Polar Code is a huge IMO project of several years in elaborating and implementing and is a complex process. In my opinion, it represents a principal subject for debate during next years, for experts and scientists, to research and improve by finding new solutions to new problems meet in maritime safety and environment protection in Polar waters. 5. Conclusions "The vehicle of nature" or “blood of the nature”8 must be protected by ballast water, one of the principal way of biological invasion of the world. Many of the treatment methods are still in the phase of experiments. Mechanical, physical, chemical and biological methods have been developed and tested to minimize the transport of organisms into the ballast water, but, some of these methods have also turned out to be damaging to marine environment because appear the risk to introduce the chemical products in the water. 7 food wastes shall not be discharged onto the ice and discharge into the sea of comminuted; ground food wastes is only permitted under specific circumstances including at a not less than 12 nautical miles from the nearest land, ice-shelf or fast ice 8 Leonardo da Vinci
  • 10. The organisms transfer in the ballast water is, in the first decade of 21st century, one of the most serious environmental problem worldwide and to solve it, IMO approved a ballast water sterilization system based on the Advanced Oxidation Technology9 , which complies with the rules of this institution and which came into effect on 2009. This agreement is very important for trying to avoid the arrival of invading species in the oceanic ecosystems, but it is very important the commitment and implication of all the countries in this. The climate change, like result to pollution of Polar System affect all our World. In this way, IMO elaborate and implement starting with 1 January 2017, the Polar Code, a huge project of several years in elaborating it. In my opinion, Polar Code represents a principal subject for debate during next years, for experts and scientists, to research and improve by finding new solutions to new problems meet in maritime safety and environment protection in Polar waters. Ballast water exchange represents a big problem and a challenge to solve for the researchers and scientist of maritime domain and not only for them, for all the World. For all of ballast water treatment methods investigated, there is the potential to reduce risks through an adequate training and safety procedures. In some cases, safety features have already been considered and are in place. If the treatment systems are installed on new ships additional safety features could be considered during ship design. Installing new technologies or redesign ships could be more expensive, so ship owners are sceptic to use a new technology unless it is proven effective and efficiently. This could be a reason more for delays in adopting regulations and implementing changes in how ships manage ballast water releases. The implementation of the best water management asked maritime scientists, shipping companies and international organizations more research, more investment, development and dedication in the next period to improve existing treatment methods and develop new methods. We all owe to future generations the protection and respect of marine environment. References 1. Carlton, James T. and Bridget A. Holohan, eds. March 1998. USA Ballast Book 1998-1999: Ballast Research in the United States of America. 2. Deggim, H. “Polar Code PPT” (PDF). Retrieved 2012-06-29 3. "Environmental Groups: IMO Polar Code Too Weak” - Marine Pollution Control. Retrieved 25 November 2014. 9 AOT
  • 11. 4. Haun, Eric (21 November 2014). "Environmental Groups: IMO Polar Code Too Weak”, Marine Link. Retrieved 25 November 2014. 5. IMO. “Shipping in polar waters”, www.imo.org. Retrieved 2015-10-04. 6. IMO. “Guidelines for ships operating in Arctic ice-covered waters” (PDF). Retrieved 2012-06-29. 7. IMO. “Guidelines for ships operating in Polar waters” (PDF). Retrieved 2012-06-29. 8. IMO. “Report of the Working Group” (PDF). Retrieved 2012-06-29. 9. IMO. “DE 56/25” (PDF). Retrieved 2012-06-29. 10. Mathiesen, Karl (November 21, 2014), “Polar code agreed to prevent Arctic environmental disasters”, The Guardian, archived from the original on 2014-11-23. Retrieved Nov 24, 2014. 11. National Research Council. 1996. Stemming the Tide: Controlling Introductions of Non - indigenous Species by Ships’ Ballast Water. 141 pages. 12. Oemcke, Darren J. and J. (Hans) van Leeuwen. March 1998. Potential of ozone for ballast water treatment. Published by CRC Reef Research Centre; Canberra, Australia. 13. On the International Environmental Agenda: Garbage, Ballast Water, and Engine Emissions. Marine Log 75(896): pp15-19. March 1995. 14. "Polar Code too weak to properly protect polar environments from increased shipping activity”, Seas at risk. 21 November 2014. Retrieved 25 November 2014. 15. http://www.imo.org/en/About/Conventions/StatusOfConventions 16. http://www.marineships.net/maritime-law/international-code-of-safety-for-ships-operating-in-polar- waters-polar-code/