Tag: system

Kenya: How Toxic and Infectious Medical Waste Can Be Harming Citizens

A visit to the hospital does not usually show what happens in the trunk. It is here where lost blood and body tissues and parts from surgeries, pharmaceuticals, medicine bottles — tonnes of hospital waste — go through. In the instance of the Kenyatta National Hospital, this might be as much as one tonne a day estimated to be half the medical waste generated from town. Quite understandably, it is not usually open to the general public.

Most of these normally wind up in incinerators — the most economical medical waste disposal system for the majority of hospitals. But a good deal of it slips through the system to get us stressed. Best practice dictates that such ash be buried.

However, as this author found out, this is much better said than done. Lack of adequate equipment to safely dispose of waste and failure to see best practices was a frequent characteristic in many hospitals visited in this survey.

From releasing harmful fumes and ash openly to the environment to dumping medical waste together with general waste, the local medical waste management scene still has quite a ways to go.

Raw medical waste and toxic ash from incinerators ends up in open dumps like Dandora and Eastleigh posing a health threat to thousands of individuals salvaging plastic and metal for recycling and residents living nearby. Major hospitals such as Kenyatta National Hospital which have great incinerators have run from reasons to bury toxic ash. Few physicians have a scrubber system where fumes are filtered to eliminate possibly toxic gases such as dioxins from burning plastic — a frequent material discarded by hospitals.

A current study on the global status of waste management ranks Nairobi as one of the worst in waste management. Residents living near Dandora reported a high number of respiratory diseases and have been discovered to have unacceptably high levels of heavy metals such as lead in their blood. Dandora dumpsite reeks of heavy metals that can hinder brain growth as our individual tests confirmed.

Walking throughout the dumpsite opened throughout the 1970s reveals unlikely materials that wind up here. Lying in the heap of an unsightly mixture of plastic bags and natural waste, one often discovers bloodied gloves, dressing bandages, needles, lost drugs and a plethora of other metals tucked off.

out of their small amounts, it’s not hard to conclude this come in smaller hospitals, clinics and dispensaries not willing to invest on the proper disposal of waste. Level five associations, previously called provincial hospitals such as Nakuru, are mostly nicely equipped with incinerators that may lighten esophageal waste into ash and water, states Kinoti.

A peek at the Dandora dumpsite reveals an unsightly mixture of plastic, food remains, animal goods and all manner of waste the town discards. Every couple of minutes a truck makes its way through the hills of garbage town has collected over decades. The steady stream of trucks falls quiet .

However, as dark drops, another group, mostly only trucks hurriedly enter the dumpsite, quickly offload their materials and also make their departure, all in just a couple of minutes — well conscious of their wrongdoing. A closer look in the chopped material reveals needles that are used, bloodied bandages, pharmaceuticals and a plethora of other waste in hospitals.

Early in the morning, a County Authorities of Nairobi earth mover turns over the waste mixing it with crap ready to get the next batch for your day.

Tens of individuals descend on the website, sorting out the garbage with their bare hands. Their interests are different. While some solely concentrate on milk packets that they wash at a sewage tunnelothers are interested in salvaging metals from the burnings heaps, fuelled by the excess gas beneath.

Still others are after the food remains which they accumulate to feed animals — all decided to earn a living. A prick from an infected needle and they might end up with serious illnesses including HIV.

They all seem too conscious of the threat, however they have to feed their children, a man, protected only by a pair of gumboots, states.

The National Environmental Management Authority and the County Authorities of Nairobi didn’t respond to our enquiries.

Nevertheless the threat of medical waste from the country does not begin or finish here. Medical facilities try to securely dispose of the waste to several levels of success. A large number incinerate their waste, but lack the prerequisite air pollution control equipment to guard against materials such as sulphur, known jointly as flue materials, getting into the environment.

In such cases, residents living near such facilities are vulnerable to respiratory ailments. A study carried out by a Yale University student recently discovered that elevated levels of toxic fumes from incinerators rending the atmosphere were responsible for respiratory ailments among residents living near such facilities.

A current report detailed that the elevated levels of heavy metals such as lead in vegetables grown and marketed in Nairobi. Lead is a dangerous metal which can cause retardation in children. Some farmers in Kinangop were recently in the spotlight for utilizing sewage to grow their plants largely sold in town.

Incinerators below standard

Dumping of toxic ash is not the sole problem facing the medical waste management scene. The state of equipment is needing, some dating several decades back and ill equipped to minimize contamination.

Most people hospital under level five have p Montfort incinerators where temperatures are not controlled and are very likely to pollute because they lack scrubber systems. “Unfortunately this kind of incinerators are typical in district hospitals and health centres,” Kinoti says.

“A wet scrubber is a compartment where the emissions are sprinkled with water to dissolve air pollutants, and what’s released to the environment is clean,” Kinoti describes. Employees are also not well protected in mid-level physicians. Due to the design of the incinerators, medical waste is loaded manually and workers who mostly don’t have protective gear are vulnerable, she states.

A moderate size incinerator costs an average of Sh20 million before installation, clearly a top shot for bicycles. Insert the high maintenance costs and also how these facilities guzzles several thousands of litres of gasoline to run daily and you wind up getting a rather high bill.

“However, the high price of incinerators isn’t any excuse for polluting the environment,” states Kinoti. “Hospital waste includes mercury and may produce furans that are extremely toxic and can cause cancer and acute respiratory diseases,” she states.

Medical facilities that don’t have incinerators are required to have contracts with specialised waste disposal businesses to take care of their waste. For many, this is just an unnecessary hurdle they have to undergo before obtaining a license to operate a hospital. Little is done to honor. A number do not follow through with all these requirements posing a massive health risk to people and the environment.

Hospitals categorize their waste otherwise due to their safe handling during transportation, storage, treatment and disposal, says Bernard Runyenje, assistant chief public health officer, Kenyatta National Hospital.

Highly infectious waste are those anticipated to be containing highly contagious pathogenic organisms such as bacteria and viruses while general waste might consist of office paper. Usually in red packs, infectious waste need special care throughout the process of waste disposal and therefore are assumed to be treated at origin. It is not however unusual to discover a worker carrying a yellow or red disposal bag without gloves or some other protective gear.

Tissues that decompose quickly such as amputated limbs are disposed of quickly or placed under refrigeration. Most African countries use incineration to dispose of medical waste.

Based on Dr Runyenje, incineration should be a controlled procedure and ought to happen in an enclosure. But he admits that incinerators in rural areas don’t meet these specifications.

A fantastic incinerator should have more than 1 room where waste is burned from the first room, so that there is increased temperatures at the second room and gases can be burnt at the third room, he states. In the end of the procedure, most of the waste was burned to a decent level. Clinics and dispensaries often working in highly populated areas often flout the regulations, publicly burning their waste with paraffin and charcoal to avoid the price of secure disposal. Half burned waste is easy to spot in dumps on roadsides and quite visible in municipal dumpsites.

Incineration nevertheless does not get rid of toxic fumes and heavy metals — if anything else it can disperse toxic fumes to a wide areas if not done correctly. The scrubber system is designed to reduce such contamination but the system is expensive and many hospitals visited don’t have it. Such gases may include carbon monoxide, carbon dioxide, dioxins and furans which can result in serious diseases such as cancer.

The minimal height of a chimney should be at least 10 feet above the tallest building around to minimise direct exposure to occupants. Whatever comes from the chimney ought to be dispersed away from neighboring buildings.

“Occasionally it is tricky to know what you’re devoting to the environment. A high chimney should not however be viewed as a substitute for a scrubber system, adds Kinoti. A high chimney simply disperses fumes further to residents who might not even be conscious of them, she finds.

To most, such as waste supervisors interviewed, ash from incinerators, or some other ashes for that matter is not harmful — a lost notion that may be contributing to its ditching. The fact remains they contain harmful metals such as mercury, lead and cadmium as our individual tests confirmed.

Incineration reduces the waste to approximately 10 percent of their initial volume. However, the residual ash generally contains very high content of heavy metals. How physicians and waste disposal businesses manage this will determine the health of our environment. Such should usually be buried in sanitary landfills to keep it from leaching to the ground, yet this practice seems rare in the country.

Whether through sheer negligence, or lack of facilities and space or reluctance to satisfy the associated costs, medical waste nevertheless ends up in our environment. When disposed in open ground, heavy metals readily leach to the groundwater or make a direct method to our food chain.

Bottom ash under normal circumstances should be buried, but many health facilities don’t have disposal grounds. These burial grounds are not present either at Dandora where officials claimed the ash was chosen to be buried.

Some businesses are licensed to manage hazardous waste. However, Dr Runyenje nonetheless notes that not many manage general medical waste.

quite a few incinerators in public hospitals were in a state of disrepair leaving tonnes of toxic waste piling up and posing a threat to the general public.

Kenyatta National Hospital includes a ground where tonnes of waste are kept awaiting disposal. Two of its three incinerators are anticipating repair resulting in a backlog estimated at 170 tonnes.

Its newly acquired incinerator from India is the most innovative among the hospitals visited consisting of two chambers for maximum combustion. The wide system of smoke pipes contributes to a room where the smoke is passed through a fluid to eliminate fumes and other residue.

The resulting black slime comprises a number of the harmful metals. However, the layout and structure of the holding region does not meet specifications and some of it circulates to the ground, a source tells us.

The incinerator cannot be operated throughout the day because the nursing college is just metres away.

The location of incinerators in relation to offices, hospitals and other residential is a frequent problem in many facilities. The one in the Chiromo School of Physical and Biological Sciences for example Isn’t in operation since it sits close to an embassy.

One incinerator at Nakuru County is perilously close to the maternity ward, some smoke go straight to patients.

The situation plays out in many other hospitals around the country who also lack additional air pollution control equipment.

Ash dumped in open ground are still an open feature in a number of top facilities which may possibly poison ground water through leaching.

Ideally, ash from such waste ought to be buried in landfills, a practice that has been abandoned in the country.

With people living close to such facilities, they are inevitably exposed, and threat serious respiratory ailments and severe diseases including cancer. The Kenyatta National Hospital incinerators operate at night to minimise vulnerability to the pupils in the School of Nursing barely a dozen metres away.

A source told this author that the soils were so contaminated they will have to be skimmed away and buried. Meanwhile, residents will have to contend with dangerous, potentially carcinogenic, ash emanating from such facilities. “The price of the incinerator is too high for them to afford,” states Thomas Imboywa, who’s in charge of one of these at the Nairobi Women’s Hospital, one of the largest in the region. On a daily basishe manages the secure disposal of the days waste.

The incinerator, a massive blue structure sits on about 100 square metres of space slightly off the main construction and sports a top chimney, towering above the local construction. However, when a practice or hospital does not turn in any waste for weeks on end, it raises eyebrows, Imboywa states. He’s familiar with many such cases and the hospital is fast to repudiate such contracts according to their policy. Some healthcare facilities might just secure a contract together to wade through National Environmental Authority (Nema) regulations but have no intention to securely dispose of the waste, Imboywa observes.

individuals who don’t have incinerators are required by Nema to have a contract with hospitals such as Nairobi Women’s Hospital to dispose their waste. However, not all of medical waste ends up in such specialised facilities. Instead, in areas such as Kibera they’re doused with paraffin and burned in the open.

“But in this circumstance, sharps will stay and the waste may nevertheless stay infectious because it is impossible for them to reach the required temperature,” Imboywa said. In reality the material can stay infectious because they might not reach the required temperatures.

Devolution could make it worse

As more physicians come up in tandem with the growing population, a rethinking how medical waste is handled will be inescapable. The devolution of resources has witnessed more clinics and dispensaries set up in previously unreached areas.

Apart from being costly, Dr Runyenje agrees that if those facilities were to put up their own incinerators, there would be pollution and authorities will have more difficulty supervising them.

“There’s need to pool incineration facilities for hazardous and medical waste,” he states. These facilities can serve as emission monitoring points for authorities. “It will be easier to set controls from such a fundamental facility. “In the Technical Working Group, we are considering how counties can pool their facilities together and also have their health care waste incinerated in a central point. It will be rather costly in the long run to have every facility to have its own incinerator that cannot run at full capacity,” he states.

The ideal waste disposal method is controlled tipping being practiced in most of Europe and North America where it is buried in layers,” Dr Runyenje states. “The advantage with this system is that the property may nevertheless be used for other activities. It is the only assurance of disposal of any sort of waste,” he states.

Kariobangi, that currently hosts light industries, used to be a controlled tipping site before start dumping at Dandora. “Counties ought to be considering controlled tipping instead of investing heavily from incinerators,” he states.

General waste may have lots of recyclable materials however suitable segregation that can make this potential is still lacking in the country.

The effectiveness of recycling is determined by the efficacy of segregation.

The problem, according to Kinoti, is enforcement of the law. While larger hospitals are trying to correctly dispose of the waste, some smaller clinics may be spoiling it, she states. The fact that generators cannot track their waste once it is given to waste collectors is also an additional problem according to her.

“there are lots of quacks doing waste direction mixing household waste with hazardous waste. This may pose a significant health problem,” states Kinoti. Since they empty waste bins from houses, waste collectors can result in serious contamination in households. “Waste collectors who are collecting toxic waste ought to be committed waste handlers and should not manage other general waste,” Kinoti says.

Effluent in the scrubber system ought to be required for treatment to remove heavy metals and other pollutants.

“The law on sound medical waste disposal ought to be enforced, district and healthcare centres should install bigger incinerators to manage waste from smaller fee. We should have dedicated health waste supervisors,” Kinoti says.

The problem, according to Kinoti, is enforcement of the law. While bigger hospitals are trying to properly dispose of their waste, some smaller clinics may be spoiling it, she says. The fact that generators cannot monitor their waste once it is given to waste collectors is also another problem according to her.

“There are many quacks doing waste management mixing household waste with hazardous waste. This can pose a serious health problem,” says Kinoti. Since they empty waste bins from homes, waste collectors can cause serious contamination in households. “Waste collectors who are collecting hazardous waste should be dedicated waste handlers and should not handle other general waste,” Kinoti says.

Effluent from the scrubber system should be taken for treatment to remove heavy metals and other pollutants. But the sewerage system is broken and a lot is discharged on the way. Sewage pipes are sometimes deliberately punctured and effluent used as fertiliser for crops.

“The law on sound medical waste disposal should be enforced, district and healthcare centres should install larger incinerators to handle waste from smaller fee. We should have dedicated healthcare waste managers,” Kinoti says.

 

by: http://allafrica.com/stories/201411111021.html

hot medical waste disposing machine, Operation Condition: 8-16 hr/ day

hot medical waste disposing machine, Operation Condition: 8-16 hr/ day 
Control: Built-in data recording
Operating temperature: Incinerator 
/Primary Combustion Chamber
Primary Chamber: 900 – 1200 0C


Type: horizontal/vertical
Temperature:  1200- 1300 oC
Residence time of gases : >2 seconds
Ash Residue: <5% of original waste size
Ash Handling System: Both Automatic and manual removal of Ash. Must ensure removal/treatment of hazardous remnants of ash
Flue gas treatment   system : Capable of treating the flow of flue  gas as the incinerator is operating at its maximum capacity
Auxiliary device: Water level gauge, pressure sensor, PH sensor..etc 
Auxiliary device: Fuel cut-off device
Waste  feeding mechanism: Automatic pneumatic/hydraulic waste loading system or conveyor belt , capacity 650-800 L at a time                                                                                                                                      
Chimney (Stack):
Type: Vertical type
height:>7 meter’
Material: Fireproof cast, stainless steel
OUTPUT: 
GAS- SMOKELESS,ODORLESS 
ASH -Max <5% of original waste size
Reduction of Pollutant gas SO2, HCL, HF and line particulate
Emission standard:
WHO/ European
Test report for emission testing provided?
Heat exchange mode: Automatic

Type: Constant loading, Top LoadingCapacity/Burn Speed per hour: 250 -300 kg/hr Substance:External- 3 layers Internal lining:  a fire proof material of pre-fired refractory bricks Using Aluminium lining, resistant to corrosive Gas or Waste and Also to thermal shockSecondary Combustion Chamber:

Hersteller von Verbrennungsanlagen für tierische Abfälle

Technische Spezifikation für Brennmaschine, Hersteller von Verbrennungsanlagen für tierische Abfälle
1. Im Süden des Königreichs Saudi-Arabien müssen zwei Systeme installiert werden. Die beiden Systeme werden von der Zollbehörde verwendet, um verschiedene Arten von Drogen zu verbrennen. Alle benötigten Geräte müssen zur Verfügung gestellt werden.
2. Garantie: Für Standsysteme muss ab dem Datum der Abnahme eine Garantie von 3 Jahren gewährt werden. Alle benötigten Ersatzteile, Reparaturen zur vorbeugenden Wartung und Korrekturwartung müssen in den Kosten enthalten sein und dem Kunden zur Verfügung gestellt werden.
3. Alle erforderlichen Strom- und Wasseranschlüsse müssen vorhanden sein.
4. Beide Systeme müssen von hoher Qualität und umweltfreundlich sein.
5. Die Kapazität jedes Systems sollte bis zu 100 kg / h betragen.
6.Das System muss automatisch zugeführt werden.
7. Jedes System muss aus zwei Brennräumen bestehen, einem Primärraum zum Verbrennen des Arzneimittels und einem weiteren Raum zum Verbrennen der Gase, die bei der Primärverbrennung entstehen.
8.Der Ofen muss aus rostbeständigem Stahl mit einer Dicke von mindestens 6 mm bestehen.
9. Jedes System muss beim Verbrennen verschiedener Arten von Arzneimitteln hocheffizient sein und einen Wirkungsgrad von 99,9% beim Verbrennen organischer Materialien aufweisen.
10. Abfallprodukte sollten 5% nicht überschreiten.
11. Das System muss über ein automatisches Zündsystem verfügen.
12. Das System sollte Diesel (HSD) als Kraftstoff verwenden und nicht mehr als 8 bis 10 l / h verbrauchen.
13. Jedes System sollte mit einem Kraftstofftank ausgestattet sein, dessen Größe ausreicht, um das System einen ganzen Tag lang zu betreiben.
14.Die Temperatur im Primärraum sollte 850 ° C ± 50 ° C betragen. Das System sollte auch bis zu 1050 ° C ± 50 ° C betrieben werden können. Das System sollte in der Lage sein, den Betrieb fortzusetzen, und sollte mit einem ausreichenden Zementschichtisolator ausgestattet sein Dicke.
15. Der Ofen sollte mit einem Wärmeisolator versehen sein, um eine einfache Bedienung zu ermöglichen.
16.Gas sollte nicht länger als 1,5 Sekunden im Nebenraum bleiben.
17.Der primäre Brennraum sollte mindestens 2 Brenner haben.
18. Der sekundäre Brennraum sollte einen Brenner haben.
19. Jedes System sollte Türen für Asche, Luftausgang zum Schornstein und Fenster haben, damit Sie hineinschauen und warten können.
20.Jedes System sollte ein Filtersystem für die Gasaufbereitung mit 2 Tanks unter Verwendung von normalem Wasser haben. Jeder Wassertank sollte ein Fassungsvermögen von 1000 l haben und am System befestigt und mit einer Wasserstandsanzeige versehen sein.
21. Jedes System sollte über eine spezielle Technologie zum Trennen von Taillenprodukten und Feuchtigkeit nach der Gasverarbeitung verfügen.
22. Jedes System sollte nach dem Betrieb kühlbar sein.
23. Jedes System m sollte mit einem Auspuffrohr mit 250 mm Durchmesser und 10 m Höhe versehen sein. Die Basis der Abgasanlage sollte 1000 mm betragen. Das Auspuffrohr sollte 6 mm groß und mit einem Wärmeisolator versehen sein. Die Abgasanlage sollte mit einer Druckanzeige versehen sein. Es sollte auch mit Leiter und Blitzableiter versehen sein.
24.Elektrische Leistung: sollte 220 Volt, 3 Phasen, 60 Hz betragen und der Motor sollte nicht weniger als 15 PS betragen.
25. Jedes System sollte mit einem Bedienfeld und Anzeigen sowie der erforderlichen Sicherheitsausrüstung und Alarmsystemen ausgestattet sein. Das Bedienfeld sollte mindestens die Temperatur sowohl im Primär- als auch im Sekundärraum sowie in den Injektoren der Filter und der Last anzeigen.
26.Jedes System sollte mit einem Alarmsystem für Ausfälle oder Defekte von Komponenten des Systems ausgestattet sein.
27. Folgende persönliche Schutzmittel müssen bereitgestellt werden:
a.Hitzebeständige Kleidung für 20 Personen.
Hitzebeständige Schutzbrille für 20 Personen.
28. Alle Komponenten jedes Systems sollten mit einer silbernen Farbe lackiert werden, die hitzebeständig ist.

hot medical waste disposing machine, Operation Condition: 8-16 hr/ day

hot medical waste disposing machine, Operation Condition: 8-16 hr/ day 
Control: Built-in data recording
Operating temperature: Incinerator 
/Primary Combustion Chamber
Primary Chamber: 900 – 1200 0C


Type: horizontal/vertical
Temperature:  1200- 1300 oC
Residence time of gases : >2 seconds
Ash Residue: <5% of original waste size
Ash Handling System: Both Automatic and manual removal of Ash. Must ensure removal/treatment of hazardous remnants of ash
Flue gas treatment   system : Capable of treating the flow of flue  gas as the incinerator is operating at its maximum capacity
Auxiliary device: Water level gauge, pressure sensor, PH sensor..etc 
Auxiliary device: Fuel cut-off device
Waste  feeding mechanism: Automatic pneumatic/hydraulic waste loading system or conveyor belt , capacity 650-800 L at a time                                                                                                                                      
Chimney (Stack):
Type: Vertical type
height:>7 meter’
Material: Fireproof cast, stainless steel
OUTPUT: 
GAS- SMOKELESS,ODORLESS 
ASH -Max <5% of original waste size
Reduction of Pollutant gas SO2, HCL, HF and line particulate
Emission standard:
WHO/ European
Test report for emission testing provided?
Heat exchange mode: Automatic

Type: Constant loading, Top LoadingCapacity/Burn rate per hour: 250 -300 kg/hr Substance:External- 3 layers Internal Liner:  a fire proof material of pre-fired refractory bricks Using Aluminium Liner resistant to corrosive Gas or Waste and Also to thermal shockSecondary Combustion Chamber:

Tinian solid waste: Where to go?

In assessing these options, the U.S. military held the assumption that the present dumpsite situated at Puntan Diablo on Tinian — the area where the Chinese team of investors is planning to develop in an integrated resort — will be closed and that a transfer station has been considered.

MARFORPAC environmental specialist Sherri Eng said the dumpsite is not something that the military will have the ability to use.

Just by looking at the requirements and the benefits of the options researched, Eng said that the simplest are the off-island disposal.”

In choosing the off-island disposal alternative, the parties might need to check in the capacity of the Marpi landfill to adapt the waste coming from Tinian — both military and civilian waste.

Eng, at a meeting with the regional regulatory agencies and officials walked them through the three systems being considered.

Choice 1: Incineration

Eng said the system that calls for the use of incinerator or waste-to-energy system requires a”properly sized incinerator,” fenced site, ash landfill, wastewater disposal, trained operators and secondary disposal site for C&D or construction and demolition waste, green waste, recyclables and white goods.

She stated that this system could cause significant waste reduction and energy production.

However, there are challenges to be met: siting and permitting, maintaining consistent operations, the demand for waste and sorting monitoring, high first cost, high maintenance cost and deadline for building.

“Construction timeline is long. It’s not something that we can install tomorrow,” said Eng.

Department of Public Works Secretary Martin C. Sablan said about the CNMI getting an incinerator that it never used owing to the difficulty of permitting through the regulatory agencies.

Choice 2: Fukuoka Landfill

The Fukuoka landfill is a fresh approach to managing solid waste. It’s a semi-aerobic landfill with a leachate gathering pipe set up in the landfill floor that drains the leachate into a treatment facility.

This method does not expect a synthetic liner.

But if that were to be chased, Tinian will need an additional 15 hectares and the use of specific structure material.

The MARFORPAC agents said they have conducted research on this method.

It had been done in Palau, Yap and American Samoa but nowhere else in the continental United States due to permitting.

“We must find some kind of waiver,” said Eng mentioning that it is not a permitted system in the U.S.

But with Fukuoka method, there is a capability to convert the existing dumpsite on Tinian.

As for leachate, the military is contemplating to upsize its waste water treatment facility to adapt this if this were the option to think about.

As the Fukuoka landfill will need clay, Eng said their study showed the deficiency of the material on Tinian; nonetheless it was indicated there’s a source in Papago.

Choice 3: Off-island Entry

This alternative proposes to use the existing Marpi landfill.

With this option, Eng stated there will be no additional land requirements.

She explained that this centralizes waste management system on Saipan.

But Eng was quick to point out that among the challenges will be how to manage the perception that Saipan becomes a dumping ground.

The military also sees the necessity to upgrade shipping infrastructure.

“We are willing to accept military waste,” said DPW Secretary Martin C. Sablan.

He explained they had excavated the floor to construct the next cell of the landfill facility.

With this option, Eng assured that”whatever we do, we’re likely to take the Tinian waste .”

Asked by DPW if the military were to foot the bill for shipping and transport of this waste, Eng stated,”We consent to discover the solution and hope to obtain the solution.” She explained she could not commit to anything.

Sablan said it’ll charge less for the military to bring their waste to Saipan but the municipality will be needing assistance.

Eng remarked that the options has to be brought down to 2.

“I do not believe we’ve got the time and money to do all three,” she explained.

Transport channel is key

As they mulled the prospective solutions to Tinian’s solid waste problems, Eng stated it is supposed that there’ll be a transfer channel.

“Transport channel is important in all these sytems,” she explained.

Closure of this dumpsite

Tinian Mayor Ramon M. Dela Cruz pointed out It Is not the responsibility of the developer to close the Present dumpsite in Puntan Diablo.

He, however, stated that Alter City has dedicated to providing around $5 million in assistance.

Asked by CIP’s Elizabeth Balajadia if they might continue to utilize the dumpsite for five more years, Tinian Mayor’s Office chief of staff Don Farrell stated”five years is too long.”

Mayor Dela Cruz stated three years would be fair.

“That will permit the developer to work on the adjacent property,” he explained.

Alter City Group is proposing to build a golf course in the present site of the dumpsite.

Alter City dedicated to help

In a hearing prior to the CNMI legislature last week, Alter City’s legal counsel Rober Torres stated,”Investor is prompted to help in its elimination.”

Mayor Dela Cruz said three years would be reasonable.

“That will allow the developer to work on the adjacent property,” he said.

Alter City Group is proposing to build a golf course at the current site of the dumpsite.

Alter City committed to assist

At a hearing before the CNMI legislature last week, Alter City’s legal counsel Rober Torres said, “Investor is motivated to assist in its removal.”
But he said the government too has to pitch in.
by: http://www.mvariety.com/special-features/business-edge/70491-tinian-solid-waste-where-to-go

islands incinerators

Application : four islands in Croatia

Capacity/island : 4000 kg/day ; 25000 kg/day ; 31000 kg/day ; 48000 kg/day
Burning temperature – over 12000C
Two chambers – minimum
Emissions – dioxin and heavy metaly – better then Kyoto protocol
Emission – monitoring system
Waste unloiding – directly from waste track to incinerator
Burn Rate(Average kgs/hr)
 25 kg
 
primary chamber
 800 degree
 
secondary chamber
 1000 degree
 
chimney
 standard
 
shredder
 separately
 
Autoclave or microwaves
 separately
 
temperature monitor
 attached outside of machine
operating
 Fuel and electric
 
–          Toxic and dangerous wastes,  
–          Medical pharmaceutical and hospitable liquids  Wastes
–          Domestic garbage  
–          Electric and electronic wastes
–          Industrial wastes
–          In General, all type of wastes and garbages
1) working now in new order for Nigeria though our company for Yd-300 x 2 units , this is a job in hand in our customer located in dubai
2) the customer also want also to buy a fuel bulk storage tank  to be for 3 days continuous operation so we hope also you can manufacture it
so please give me the best price for fuel bulk storage tank  to be for 3 days continuous operation for YD-300
3) installation must be in the site in Nigeria by your company ,as i know your price rate which you sent to be before
4) what is the best price CIF Nigeria in lagos sea port as i have only price for cif dubai
5) 150 pcs Waste Containers (820 L) fully compatible with the incinerator and clinical waste container washing system.  please send me the price and catalog for this item
6) also they need Automatic Clinical Waste Container Washing System complete in every respect and fully compatible with containers price and catalog
7) 2 units 1.5 tonne Fork Lift  ( if you know good price and quality  company in china)
8) 1 unit Clinical Waste Container Vehicles complete in every respect and fully compatible with containers.
9) Spare Parts For 2 Years Operation & Maintenance  for YD-300 and for the above machines
10) all parts , pipe work electrical work and civil work for incinerator must be provided and material must be quoted
The highest temperature that the filter bag can operate continuously is 260C.    In order to add a bag house using our filter products, 
you would need to add a water cooling tower or other method to reduce the inlet temperature at the baghouse to less than 260C.   
If you cannot lower the temperature below 260C, then we cannot utilize our membrane filter bags.  

islands incinerators

Application : four islands in Croatia

Capacity/island : 4000 kg/day ; 25000 kg/day ; 31000 kg/day ; 48000 kg/day
Burning temperature – over 12000C
Two chambers – minimum
Emissions – dioxin and heavy metaly – better then Kyoto protocol
Emission – monitoring system
Waste unloiding – directly from waste track to incinerator
Burn Rate(Average kgs/hr)
 25 kg
 
primary chamber
 800 degree
 
secondary chamber
 1000 degree
 
chimney
 standard
 
shredder
 separately
 
Autoclave or microwaves
 separately
 
temperature monitor
 attached outside of machine
operating
 Fuel and electric
 
–          Toxic and dangerous wastes,  
–          Medical pharmaceutical and hospitable liquids  Wastes
–          Domestic garbage  
–          Electric and electronic wastes
–          Industrial wastes
–          In General, all type of wastes and garbages
1) working now in new order for Nigeria though our company for Yd-300 x 2 units , this is a job in hand in our customer located in dubai
2) the customer also want also to buy a fuel bulk storage tank  to be for 3 days continuous operation so we hope also you can manufacture it
so please give me the best price for fuel bulk storage tank  to be for 3 days continuous operation for YD-300
3) installation must be in the site in Nigeria by your company ,as i know your price rate which you sent to be before
4) what is the best price CIF Nigeria in lagos sea port as i have only price for cif dubai
5) 150 pcs Waste Containers (820 L) fully compatible with the incinerator and clinical waste container washing system.  please send me the price and catalog for this item
6) also they need Automatic Clinical Waste Container Washing System complete in every respect and fully compatible with containers price and catalog
7) 2 units 1.5 tonne Fork Lift  ( if you know good price and quality  company in china)
8) 1 unit Clinical Waste Container Vehicles complete in every respect and fully compatible with containers.
9) Spare Parts For 2 Years Operation & Maintenance  for YD-300 and for the above machines
10) all parts , pipe work electrical work and civil work for incinerator must be provided and material must be quoted
The highest temperature that the filter bag can operate continuously is 260C.    In order to add a bag house using our filter products, 
you would need to add a water cooling tower or other method to reduce the inlet temperature at the baghouse to less than 260C.   
If you cannot lower the temperature below 260C, then we cannot utilize our membrane filter bags.  

PRINCE SALMAN UNIVERSITY HOSPITAL (MINISTRY OF EDUCATION) @ AL KHARJ

 ملاحظة: المخططات المقدمة هي بغرض التسعير وعلى المقاول تقديم مخططات متكاملة  طبقا لتوصيات الشركة المصنعة وبما يلزمها من ملحقات لعمل الوحدات بصورة سليمة، ويتم التنسيق مع الوزارة لتحديد مكان الوحدة بالموقع العام 
توريد وتركيب واختبار محرقة نفايات طبيه بسعة 75  كجم / الساعة تعمل بالغاز ( LPG ) كاملة بجميع مشتملاتها وملحقاتها مع المدخنة طبقاً للمواصفات الفنية والشروط الصحية العامة  
إنشاء غرفه خاصة بالمحرقة تتسع لثلاث محارق كما فى البند 3-1-1 وملحق بغرفة المحرقة مخزن للنقايات يستوعب نفايات لمدة  سبعة أيام وتكون جميع الانشاءات من الخرسانة المسلحة مع تجهيز مبنى المحرقة والمخزن بجميع أعمال التوصيلات والكهربائية والاضاءة وأنظمة التغذية بالمياه والصرف 
تزويد مبنى المحرقة ومستودع النفايات بنظام اطفاء حريق بالرشاشات يعتمد على مصدر المياه من شبكة الموقع العام وكذلك نظام إنذار حريق يحتوى على حساسات للحرارة والدخان ويكون هذا النظام مرتبط مع أنظمة إنذار الحريق بالمستشفى 
توريد وتركيب واختبار نظام تهوية جبرية لغرفة المحرقة والمستودع بواسطة مراوح مركزية ROOF TOP EXHAUET FANS مع تزويدها بفلاتر عالية الكفاءة ( HEPA FILTER  تركب على سحب المراوح مع اخذ معدل تغيير الهواء 5 مرات فى الساعة مع مجارى وجربلات الهواء المطلوبة 
توريد وتركيب وإختبار وحدة تكييف منفصلة لمستودع النفايات DUCTED SPLIT UNITES وبسعة كافية للمحافظة على درجة الحرارة الداخلية عند 14 درجة مئوية صيفاً وشتاً 
توريد وتركيب وإختبار مخزن تبريد من الحوائط المعزولة سابقة التحهيز بداخل غرفة النفايات وبسعة 35 متر مكعب لحفظ النفايات الطبية في درجة حرارة صفر مئوي لحين حرقها شاملة لوحدة التبريد وجميع الملحقات 
 
 
BIO MEDICAL INCENERATOR 
BIO MEDICAL INCENERATOR  PLANT
Fabricating, supplying, installing and commissioning including all assosaries such as controling and measuring devices, all civil works as needed either in concrete or masonary as the case may be necessary room stack height etc as per the indicated requirment in the specification. if any thing is left out, the bidder is required to include the same to make the system complete for treating biomedical waste generated in hospital having bed of 250nos. etc.
CAPACITY :- 200BEDS.
Operation and Maintenance Manual
As built Drawing in 3 set hard copy + Soft copy in Cad
Testing and Commissioning
 Note: The drawings  are provided for the purpose of pricing and the contractor has to provide an integrated drawings in accordance with the manufacturer’s recommendations and with the necessary addendums  to the work of the units properly, and be coordinated with the ministry to locate the unit place in the general site 
Supply, installation and testing of medical waste incinerator with a capacity of 75 kg / hr gas (LPG) complete with all accessories and consequently with the chimney in accordance with the technical specifications and conditions of public health 
make a room for the incinerator that  accommodate three incinerators as in item 3.1.1 and attached to the  incinerator room   waste store that accommodate waste for a period of seven days and all the constructions of reinforced concrete with  preparingg  incinerator building  and store with all the work of wiring, electrical and lighting systems, water supply and sanitation 
 supply incinerator building and the waste warehouse with   a fire extinguish sprinkler system depends on the source of the water from network of teh general site , as well as a fire alarm system contains sensors for heat, smoke and  this system is linked with the hospital fire alarm systems 
Supply, installation and testing of the ventilation system of the  incinerator room and the warehouse with  fans ROOF TOP EXHAUET FANS providing them with filters with high efficiency (HEPA FILTER ride to pull fans with taking the air change rate of 5 times per hour with streams and air required grilles   
Supply, installation, testing separate conditioning unit for  waste repository DUCTED SPLIT UNITES and capacity sufficient to maintain the internal temperature at 14 degrees Celsius in summer and winter  
Supply, installation, testing  of the cooling store of  insulated  prefabricated walls   inside the waste  room with a capacity of   35 cubic meters to save the medical waste at a temperature of zero Celsius till  burning  including the  cooling unit and all accessories 

PRINCE SALMAN UNIVERSITY HOSPITAL (MINISTRY OF EDUCATION) @ AL KHARJ

 ملاحظة: المخططات المقدمة هي بغرض التسعير وعلى المقاول تقديم مخططات متكاملة  طبقا لتوصيات الشركة المصنعة وبما يلزمها من ملحقات لعمل الوحدات بصورة سليمة، ويتم التنسيق مع الوزارة لتحديد مكان الوحدة بالموقع العام 
توريد وتركيب واختبار محرقة نفايات طبيه بسعة 75  كجم / الساعة تعمل بالغاز ( LPG ) كاملة بجميع مشتملاتها وملحقاتها مع المدخنة طبقاً للمواصفات الفنية والشروط الصحية العامة  
إنشاء غرفه خاصة بالمحرقة تتسع لثلاث محارق كما فى البند 3-1-1 وملحق بغرفة المحرقة مخزن للنقايات يستوعب نفايات لمدة  سبعة أيام وتكون جميع الانشاءات من الخرسانة المسلحة مع تجهيز مبنى المحرقة والمخزن بجميع أعمال التوصيلات والكهربائية والاضاءة وأنظمة التغذية بالمياه والصرف 
تزويد مبنى المحرقة ومستودع النفايات بنظام اطفاء حريق بالرشاشات يعتمد على مصدر المياه من شبكة الموقع العام وكذلك نظام إنذار حريق يحتوى على حساسات للحرارة والدخان ويكون هذا النظام مرتبط مع أنظمة إنذار الحريق بالمستشفى 
توريد وتركيب واختبار نظام تهوية جبرية لغرفة المحرقة والمستودع بواسطة مراوح مركزية ROOF TOP EXHAUET FANS مع تزويدها بفلاتر عالية الكفاءة ( HEPA FILTER  تركب على سحب المراوح مع اخذ معدل تغيير الهواء 5 مرات فى الساعة مع مجارى وجربلات الهواء المطلوبة 
توريد وتركيب وإختبار وحدة تكييف منفصلة لمستودع النفايات DUCTED SPLIT UNITES وبسعة كافية للمحافظة على درجة الحرارة الداخلية عند 14 درجة مئوية صيفاً وشتاً 
توريد وتركيب وإختبار مخزن تبريد من الحوائط المعزولة سابقة التحهيز بداخل غرفة النفايات وبسعة 35 متر مكعب لحفظ النفايات الطبية في درجة حرارة صفر مئوي لحين حرقها شاملة لوحدة التبريد وجميع الملحقات 
 
 
BIO MEDICAL INCENERATOR 
BIO MEDICAL INCENERATOR  PLANT
Fabricating, supplying, installing and commissioning including all assosaries such as controling and measuring devices, all civil works as needed either in concrete or masonary as the case may be necessary room stack height etc as per the indicated requirment in the specification. if any thing is left out, the bidder is required to include the same to make the system complete for treating biomedical waste generated in hospital having bed of 250nos. etc.
CAPACITY :- 200BEDS.
Operation and Maintenance Manual
As built Drawing in 3 set hard copy + Soft copy in Cad
Testing and Commissioning
 Note: The drawings  are provided for the purpose of pricing and the contractor has to provide an integrated drawings in accordance with the manufacturer’s recommendations and with the necessary addendums  to the work of the units properly, and be coordinated with the ministry to locate the unit place in the general site 
Supply, installation and testing of medical waste incinerator with a capacity of 75 kg / hr gas (LPG) complete with all accessories and consequently with the chimney in accordance with the technical specifications and conditions of public health 
make a room for the incinerator that  accommodate three incinerators as in item 3.1.1 and attached to the  incinerator room   waste store that accommodate waste for a period of seven days and all the constructions of reinforced concrete with  preparingg  incinerator building  and store with all the work of wiring, electrical and lighting systems, water supply and sanitation 
 supply incinerator building and the waste warehouse with   a fire extinguish sprinkler system depends on the source of the water from network of teh general site , as well as a fire alarm system contains sensors for heat, smoke and  this system is linked with the hospital fire alarm systems 
Supply, installation and testing of the ventilation system of the  incinerator room and the warehouse with  fans ROOF TOP EXHAUET FANS providing them with filters with high efficiency (HEPA FILTER ride to pull fans with taking the air change rate of 5 times per hour with streams and air required grilles   
Supply, installation, testing separate conditioning unit for  waste repository DUCTED SPLIT UNITES and capacity sufficient to maintain the internal temperature at 14 degrees Celsius in summer and winter  
Supply, installation, testing  of the cooling store of  insulated  prefabricated walls   inside the waste  room with a capacity of   35 cubic meters to save the medical waste at a temperature of zero Celsius till  burning  including the  cooling unit and all accessories 

Mobile Diesel Fired Incinerator in container

Mobile Diesel Fired  Incinerator in container, 
supplied with the following specifications:
complete with constant ventilation fans for extraction, 
factory installed inside one 20ft ISO container complete with lighting, ventilation fan, fire security, 3 access doors, and a 1200 litre fuel tank complete with a piping. 
Fully containerised mobile  waste management solution for medical, animal, and industrial waste applications.
Installed in Container (ISO) : 20”
or its nearest equivalent model “
Tender Technical Specification
Destruction rate of 50kg/hr
Hot Hearth Principle
Refractory insulation:
a. Silicon carbide floor
b. Minimum 22mm insulation thickness
c. Brick lined Refractory insulation
d. Three layers of refractory insulation
e. Temperature Rating 1650 deg.C
f. 42% alumina fire bricks
Primary Chamber:
a. 120Kw Burner 
b. Dedicated independent fan system, damper controlled. 
c. Thermostatic Sensor 
d. Dimensions – 700mm x 700mm x g00mm
e. Square Chamber with curved floor for liquid centralization
Hot Hearth Chamber:
a. 120Kw Burner
b. Thermostatic Sensor 
c. Minimum Temperature of 1100 deg.C as per WHO guidelines. 
d. Two second retention time – Proven with CFD modeling.
Steel Construction:
a. constructed from 8mm & 1Omm steer plate 
b. Painted two pack paint system, red with black flashing
Control Panels:
a. Door dimensions 700mm x 700mm
b. Front mounted ash collection box.
Control Panels:
a. AiController
b. Plug and play 
c. Threezone monitoring of:
i)Primary chamber
              ii) Secondary chamber
              iii) Hot hearth
d. Digital display
e. Burner on-off indication lights 
f. Timer
Chimney:
a. Mild steel painted red
b. Refractory insulated with 50mm of insulation.
Unit Dimensions:
1840mm x 1 ‘1 50mm x 1950mm high.
Safety:
a. Burner door cut-off switches
b. Fire valve fitted to fuel system 
c. Maximum noise at 1m x g0 decibels 
d. Exterior temperature 70 deg.C Max