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Waste incineration industry momentum is fierce level of related facilities to be improved

[China] Solid Waste Environmental online waste incineration industries development momentum is fierce, and the brightest of capital chasing even appear several times in the last year the price of handling fee diving, industry raised concerns about the vicious competition. “Thirteen Five” during garbage construction market investment space at 1000 billion yuan; the growing garbage incineration capacity of the operation of the facility, the regulatory level challenges. Many industry companies said in simple incineration links, market competition is too fierce, competitive professional enterprises should play in the field of business models and technological innovation.

Waste incineration industry momentum is fierce level of related facilities to be improved

“Twelve Five” is a fast-growing garbage incineration five years. According to relevant statistics, in 2015, the national city and county has accumulated garbage incineration capacity of about 233,000 tons / day. Waste incineration industries development momentum is fierce, and the brightest of capital chasing even appear several times in the last year the price of handling fee diving, industry raised concerns about the vicious competition. Which is still used as the main way of landfill waste, mostly due to the local authorities responsible for managing the operations, the market is not high, remain “low key.”

The future will continue to heat a cold do?

In this regard, some experts pointed out that, on the one hand, waste incineration will continue to grow, but the amount of accumulation and qualitative improvement of equal importance, particularly waste incineration emissions formal implementation of new standards for operation of the facility and set higher requirements; on the other hand landfill as an indispensable and irreplaceable resource, is still dealing with the mainstream. But to find out the remaining storage capacity, make good use of good management will become critical; at the same time, non-canonical transformation landfill, pollution, etc. also brought closure to repair the relevant market opportunities.

According to the deputy director of the Research Center for Environmental Health Engineering Department of Housing and General Workers Liujing Hao introduction, facility upgrades will be the next five years, important content. “China’s solid waste disposal facilities (landfill, incineration plant) construction and development is very fast, there are a number of construction and operation of the facility has a large room for improvement. There are many old landfills need to maintain and update, so as not to pollute the surrounding environment. Some of the early construction of incineration plants need to be upgraded or reset. ”

Incineration facilities is still on the rise

“Thirteen Five” during garbage construction market investment space at 1000 billion yuan; the growing garbage incineration capacity of the operation of the facility, the regulatory level challenges.

‘Facilities’ second five’ plan basically completed the goal. “China Urban Environmental Health Association and vice president, director of the Research Center for Environmental Health Engineering Department of Housing and Xu Wenlong said that according to” the “second five” national urban domestic garbage treatment facility construction plan, “clearly incineration project the total size of 307,200 tons / day. Although the end of 2015, the national total incineration capacity of 233,000 tons / day, but the size of the project currently under construction there of about 10 tons / day, and basically complete the planning and construction scale.

Planning and completion of high interest capital markets has a direct relationship. Construction and operation of waste incineration facility has become one of the segments of capital chasing the parties, after the project in a constant rise to fierce “fight.”

The next five years, incineration facilities construction market is still big? In this regard, the Executive President of the Institute of E20 Xue Tao believes that incineration facilities will maintain growth. “In the construction of garbage ‘Thirteen Five’ period, probably in the investment market space, building space is at 100 billion yuan.”

Xu Wenlong believes that new market does still have a better chance. Currently, most of the city and most of the county’s garbage can be effectively collected and treatment and disposal in sanitary landfill and incineration plants. But still there are gaps in waste disposal facilities, the new facility is still one of the main tasks of the current and the next five-year plan. “According to the relevant national planning, the national MSW incineration capacity in 2020 will exceed 40 tons / day in 2025 up to 50 tons / day. By then, China’s demand for incineration facilities will reach a relatively stable state.”

Accumulation in the continued qualitative improvement already started. From January 1 this year, all new country, has been running garbage incinerator must perform a new “garbage burning pollution control standards” (GB18485-2014) (hereinafter referred to as the new standard) of emission limits. New standards for conventional pollutants, dioxin contamination compared to the previous standard have more stringent requirements.

(Source: China Association of gravel)
Article Links: China Environmental Protection online http://www.hbzhan.com/news/detail/105016.html

Waste Management Planning

The generator of a waste is responsible for its safe management from cradle-to-grave. Using raw materials efficiently and reducing the amount of waste generated is the most important step in waste management planning.  For example, through improved waste management planning, it may be possible to reduce or eliminate the need to burn or incinerate waste altogether.  Undertaking a waste audit will help to identify the type and amount of waste being generated, the costs of current management options and examine opportunities for better managing the waste. This information will also enable the generator to implement a waste management regime that is tailored to its own unique needs, location and circumstances.

Even with improved waste reduction measures in place there will be waste generated.  Waste by its nature is usually a mixture of different unwanted materials. The segregation and diversion of different types of waste is an effective way to reduce the amount of waste requiring costly handling, storage, treatment and disposal. Segregation also enables the reuse of certain types of waste for a different purpose.  Reuse activities may be undertaken either on-site or off-site.

Treatment and disposal is the last step in effective waste management and should be undertaken only after all other practical reduction and reuse options have been examined.  A wide variety of treatment and disposal options exist and each must be examined before deciding on a final method, regardless of whether waste is to be treated and disposed of on-site or off-site. If burning and incineration is the method of choice, equipment must be designed and sized accordingly to accommodate the type and quantity of waste being produced. As described in the following section, open burning is capable of safely destroying a limited number of types of waste. While incinerators are capable of safely destroying a wider range of waste, many types of waste must still be diverted. Because of this, on-site segregation remains a critical component of any waste management plan.

Overall, the following principles should be used to guide responsible solid waste management planning:

Know your waste by conducting a waste audit.
Reduce the amount of solid waste produced by implementing strategic purchasing policies that focus on the substitution or reduction of purchased products as well as product design, composition and durability.
Reuse waste where different purposes can be identified.
Segregate and divert mixed waste streams enabling waste to be reused or recycled, thereby reducing the amount of waste to be disposed of.
All practical disposal methods should be examined. Burning and incineration of waste should be considered only where other practical methods do not exist.

If burning and incineration is used, the equipment chosen should be designed and sized to accommodate the waste produced, minimize fire hazard and result in the complete combustion of the waste.

hazardous and biomedical waste

The role of municipal governments is important in the proper local management of solid waste. Under the Nunavut Land Claims

Agreement, municipalities are entitled to control their own municipal disposal sites. Local environmental and safety

standards are determined, in part, by how the land is designated under municipal government development plans (i.e. land use

zoning).  Solid waste may be deposited into municipal landfill sites only with the consent of the local government. The local

fire department may also be called upon if a fire or other public safety issue is identified.

Solid waste incinerators are engineered systems that are capable of routinely achieving burn temperatures in excess of 1000oC

and a holding time of at least one second. Properly designed and operated incinerators are able to effectively and safely

destroy a wide range of waste.  Only incinerators designed for burning mixed municipal solid waste are discussed in the

guideline. The incineration of

hazardous and biomedical waste and sewage sludge requires specific equipment, operational controls and training that are

beyond the scope of the current document.

There are four basic types of incinerators. They vary based upon the number of burn chambers they have, the amount of air

provided to each chamber and how waste is fed into the primary burn chamber.

Dual-Chamber Starved    The primary burn chamber receives less air than is needed to achieve full
Air System    combustion. Gases from this incomplete combustion then pass into a second burn chamber where sufficient air

is injected and complete combustion is achieved.

Single Chamber Excess    More than a sufficient amount of air (as much as 50% more than the amount
Air System    of air needed) is injected into the single burn chamber to achieve complete combustion of the waste.

Continuous Feed    An incineration process that is in a continuous burn cycle.  A continuous feed
Incinerator    incinerator operates without interruption throughout the operating hours of the facility by having waste

continually added to the primary burn chamber.

Batch Feed Incinerator    An incineration process that is not in a continuous or mass burning cycle.  A batch feed incinerator

is charged with a discrete quantity or single load of waste at the beginning of the burn cycle.

Batch feed dual-chamber controlled air incinerators currently operate at several remote industrial locations in northern

Canada and Alaska.  Although they are generally considered to have the highest qualities of all the incinerators and open

burning methods mentioned, they must be designed for the type and quantity of waste to be burned. Too little heat and holding

time will not allow waste to burn properly; too much heat will damage the incinerator.

Figure 5 illustrates the design of a typical batch feed dual-chamber controlled air incinerator. The main features of this

type of incinerator are:

Batch operation allows greater control of temperature and air throughout the burn process. Air turbulence can be reduced in

the primary chamber so fewer particulates are released into the air from the stack.
Although a wide range of wastes can be destroyed, waste may have to be segregated and remixed in order to achieve a

uniform heating value close to the design point of the incinerator.
Externally supplied fuel and electricity are needed for the burners and forced air ventilation. A properly operating dual-

chamber controlled air system will reduce problems with animal attraction as the production of bottom and fly ash and smoke

is minimized.

Section 2.3.2 is intended to provide the reader with a brief introduction to incinerators. It is not intended to provide

information suitable for the design, selection or operation of an incineration system. Any person considering the purchase of

an incineration system should first consult the system’s manufacturer or other qualified persons with expertise in the

incineration of solid waste.

Biological and Pathological Waste Incinerator

The medical waste to be disposed from the incinerator is a mixture of plastics, paper, Sort 4 waste, etc., and is a widely changing character having a Btu content that might well exceed the reported price of 2,326,000 J/kg (1000 Btu percent ). Prior to developing final design of the incinerator, comprehensive waste category needs to be made, levels of steel, glass, plastics, paper, organic, rubber, cloth, timber, rust, etc., at the waste and also the variable joule (Btu) content.  The waste stream at each installment has to be analyzed along with the information needs to be utilized to your final design.
Provide draft gauges conforming to ASME b-40.100 having a diaphragm or bellows actuating system, a circular scale, with a zero adjustment screw, and also convenient shutoff cocks.

•Pressure Gauges
Provide sensors conforming to ISA MC96.1, Form K, at the combustion room or as otherwise directed, with a thermocouple acceptable for continuous operation and control temperatures up to 1260 degrees C 2300 degrees F accurate to 0.75 percentage, of sufficient length to be added 150 mm 6 inches into the furnace. Give you the thermocouple using an adjustable flange and also a high- temperature metal alloy, closed-end, protecting tube suitable for insertion into the furnace without support of this casting finish. Supply thirty meters one hundred feet of 1.52 mm 16- gauge compensating lead cable with a weatherproof braid for linking the thermocouple to the instrument, so the installed unit signals gas smoke temperatures and controls burner operation.

1.3.7 Operating Tools
D.Provide counter weights for downhill controlled doors requiring an optimum manual operating force of 133 N30 pounds max. Provide guillotine-type doors which lift completely off the seals to change opening. Provide full-swing-type doors using an important smaller feed door having the absolute minimum rectangular clear introduction of 610 by 610 mm 24 by 24 inches or perhaps even a minimum circular clear launching of 762 mm 30 inches diameter.] Include hasps or mounts for doors to permit locking.

•Stoking and Cleanout Doors. Provide tight-fitting clean out doors which allow access for total cleanout, visual review of the whole interior of the incinerator, and protect against leakage of waste fluids.

•Mechanical-Charging Doors
Provide inner and outer guillotine, or swing or automatic sliding, mechanical- charging doors type, with all the inner or charging door opening with functioning of the charger. Inter Lock the outer and inner doors to stop simultaneous introduction throughout incinerator functioning. Insulate and line the combustion room door with refractory material. Construct the outer door of the exact substances as the outside casing of the incinerator. Doors will be provided with means for manual performance.
Product Data: Incinerator Controls and instrumentation Test Reports: Instrument readings.
Provide equipment which supplies the right quantity of atmosphere to permit whole controlled combustion. Include forced draft fans, draft gauges, dampers, damper actuators, linkage, and appurtenances necessary to maintain a bad draft in chief room to be able to provide optimum performance at all rates.

•Air Ducts
After becoming familiar with all facets of the job, verify measurements in the field, and advise the Contracting Officer of any discrepancy before performing the work.

1.4MANUFACTURER’S Providers
Dioxin/Furans: 35 gr/109dscf (1.9 ng/dscm) toxic equivalency of two, 3, 7, 8-TCDD, 12-hour average as measured by EPA Reference Method 23.
Provide a secondary room having an outdoor casing less than 5 mm conforming to ASTM A1011/A1011M, with insulation and refractory lining of the exact class, type, and depth necessary for walls in the main room. Allow for a minimum dwell time of 0.8 seconds for virtually any state within normal operating constraints.

2.5.9Insulation
A.Submit manufacturer’s product data, catalog cuts, illustrations, schedules, performance charts, instructions, brochures, diagrams, sound level dataand calculations for gas retention times, combustion and air emissions data, along with other details to verify compliance with all requirements of this contract records.
(Highly-combustible )
Important: minimum height of the chimney ought to significantly less than 15-meter quantified from roof of roof of incinerator space and less than 5 meter greater than any construction in distance of 1km in incinerator space, along with the outlet velocity of flue gases ought to less than 1 litres per minute
Provide two observation vents, 75 mm 3 inches in diameter, on the charging door for seeing the main combustion chamber during performance.
Provide pressure gauges conforming to ASME b-40.100, pressure detecting class, single Bourdon tube style, suitable for detecting air pressure.

•Thermocouples
Give you the machine with provisions for automatic removal of the ash throughout the clean out door up on finishing the burnout and cooldown cycles. Ash removal shall be indicated for usage with portable containers.
Particulate Matter: 0.013 gr/dscf (30 mg/dscm) as measured by EPA Reference Method 5; Opacity: 5 percentage, 3-minute average as quantified with a CEMS;
Design equipment platforms for 7.18 kPa 150 psf live load and a concentrated load of equipment weight in installed location, plus dead load.
2Attach a corrosion-resistant steel spark arrestor fabricated of 1.21 mm 18-gauge, 13 mm 1/2 inch mesh cable screen to the top of the heap. Provide a corrosion-resistant steel weather limit. Even the

temperature of the casing will not exceed 50 degrees C at an ambient temperature of 21 degrees C 70 degrees F. Provide adequate support for virtually any heap installed in addition to the incinerator without placing any of this load on your refractory walls of this incinerator.
A.Provide doors for stoking, clean out, and charging areas, with securely attached door-frames. Construct doors and frames of steel conforming to ASTM A1011/A1011M. Line doors, subjected to flame or direct heating of combustion fumes, with all precisely the exact identical type and depth of refractory and insulation used in the combustion chamber.
4.79 kPa 100 psf live load and dead load.
Provide incinerator having a capacity of less than [75] mph hour, dependent on operating the incinerator no more than 8 hours continuously per day, and also to be acceptable for burning medical waste parts which have a water content as high as 85 per cent by weight.

Supply furnace using an inside volume, exclusive of the space occupied by the refractory hearths and walls, of not less than two cubic meters having a primary combustion chamber amount above the burning hearth of less than 1.5 cubic meters, either Supply an entire waste burning system containing combustion air fan, primary and secondary burners, air distribution and burner controllers, ducts, breeching, stack, bottom ash conveyor and set, nourish rams, flame tube water tube, air compressors, and slurry pumps, and water pumps, and fly ash collection strategy.

2.5OPERATING AND PERFORMANCE REQUIREMENTS

2.5.8Weight Reduction

Supply an incinerator effective at reducing junk to an ash perhaps maybe never to exceed 5 per cent of the whole combustible charges when analyzed as stated.

2.5.9Stack Discharge

Supply pollution control equipment to satisfy applicable emission regulations and also utilize most rigorous requirements.
C.Enclose or guard belts, pulleys, chains, gears, couplings, projecting setscrews, keys, and other rotating parts located at which any person may arrive from close proximity thereto. Guard and cover high-temperature equipment and piping located where they could undermine personnel or make a fire hazard with insulation of type specified for service.
The centrifugal type with forward-curved blades, also statically and dynamically balanced fan wheels adhere to the fan standards of AMCA 99, along with CID A-A-59222, centrifugal furnace fans, ranked for flowrate, pressureand power, speed of spinning, and efficiency in accordance with AMCA 210. Provide induced draft fans, where demanded, designed for tackling hot flue gas at the maximum outlet temperature of the incinerator.

2.8.7 Ash Removal
Moisture Content (MAX)%    Heating Worth J/kg
Provide an incinerator having a stable hearth in the main combustion chamber where partial conversion and burning of the combustible organic thing occurs, and also a secondary combustion chamber that absorbs the combustible gases and entrained combustible particles, with gas-tight casing structure. Provide an incinerator suitable for indoor setup including totally enclosed electric motors, and corrosion and moisture protection, and designed with mechanical charging and functionality. Incinerator will likely be an entire package-type unit, factory fabricated and assembled operating under negative air pressure and ready for attachment of all utility links.

2.6.1Kind of Waste
1-  Parts per million by volume (ppmv).
A.Provide LPG burners to your primary and secondary combustion chambers, with each burner because an entire assembly including control and fuel systems, and attachments.
Provide powdered activated carbons (PAC) specifically made for its removal of mercury, dioxins, and furans having a high percentage of pore sizes in the 20 to 50 angstrom range, together using pa-c completely devolatilized.

2.3.6Pebble Quick Lime Diagnosis
Nitrogen Oxides (NOx): 2-10 ppmv, 12hour average as measured by EPA Reference Method 7 Hydrogen Chloride (HCL): 42 ppmv, or 97 percent decrease, 9-hour average as measured by EPA Reference Method 26
Provide control system together using proportioning charge of the primary air source and gas supply into the burner], and also temperature index controls or alternative signs providing a visual sign for safe loading of this incinerator and surplus elevated temperature conditions that might require control by the operator.
5-  mg (mg);

2.5.10Noise
Provide site function, structural bases, and floor slabs as demanded.

•Roof Lots
Provide heap support in accordance with NFPA 82 and NFPA 211, as applicable. Provide lateral and vertical supports for outside chimneys to defy wind forces.

refractory and insulation. Play all welding according to ASME BPVC SEC IX and AWS d 1.1/d 1.1M. Supply entry doors and parts using seals to avoid emission of smoke or entrance of significant amounts of atmosphere throughout incinerator operation, and also a primary room without any openings which would permit emission of waste fluids.

2.5.8Secondary Chamber
Be aware: Your incinerators should be capable of decreasing medical waste. The composition of Type 4 squander as indicated from the following table:

WASTE VS. CONTENT

Type    Non-combustible Solids (Max% Posts
A.Include in control equipment and instruments, burners and fan controllers, time clocks, brakes, operating switches, indicating lights, gauges, motor starters, fuses, alarms, and circuit elements of this control system, and also other controllers and instruments required for unit functionality, using system in accordance with the FM APP GUIDE.

b.Mount the controls and instruments on a couple of freestanding control panels handily located to the incinerator, and placed to allow functioning employees effortlessly track incinerator operations.
Install equipment and material as indicated and according to manufacturer’s written guidelines and NFPA 82, with combustion air supply and venting in accordance with NFPA 31 or NFPA 54 as applicable.
Total Hydrocarbons: 70 ppmv, 1-hour average as measured by EPA Reference Method 25 Mercury: 2-10 gr/106dscf (0.47 mg/dscm) or 85 percent decrease, 12hour average as measured by EPA Reference Method 29;
Furnish all specific tools for assembly, adjustment, setting, or maintenance of equipment specified as accessories.

•DELIVERY, STORAGE, AND HANDLING
Failure protection. Sight the flame shield sensor to find only the burner flame to which it was fashioned, using burners which are readily transferred out of fire location for review, cleaning, modification, and maintenance. Locate thermocouples from the primary and secondary chamber, convenient for a maximum temperature of 1260 degrees C 2300 degrees F. supply a continuous secondary burner which modulates from high to low flame, dependent on the temperature of the secondary room. Provide an on/off fire burner in the main chamber.
Asbestos and asbestos-containing products are prohibited.

2.10.2Detail Installation Drawings
10
Protect all equipment delivered and placed in storage from the elements, humidity and temperature variations, dirt and dust, or other contaminants.

•EXTRA MATERIALS
Play all welding according to ASME BPVC SEC IX and AWS D 1.1/D-1.1M by welders certified to have passed qualification tests utilizing procedures covered in AWS B 2.1/B2.1M.

2.10.4Special Tools
C.Provide controls actuated by means of a thermocouple or shielded bi metallic detector, with all the mounting, flame structure, and faculties of each burner acceptable to your incinerator room where the burner has been installed. Flame impingement on the incinerator wall socket isn’t permitted.
Typical values are as follows or less:
Furnish equipment fulfilling the noise criteria specified herein through equipment structure, acoustic insulation, usage of coil silencers, or alternative methods provided under this arrangement.

1.3.6 Controls and Instrumentation
Adjust all of the emission limits to 7 percent oxygen, dry basis. These definitions were utilized previously:

Biological and Pathological Waste Incinerator is characterized as animal and human remains, such as organs, animal carcasses, and powerful organic wastes from hospitals, laboratories, slaughterhouses, animal pounds, and similar sources. This type of waste contains up to 85 per cent moisture and more than 5 per cent incombustible solids, and it has a heating value as low as 23-30 kJ/kg 1,000 BTU per pound as fired.
Provide connectors to connect the incinerator to the heap unless the heap is attached directly to the incinerator, prior to NFPA 211.
Give you the help of the manufacturer’s representative experienced in the installation, modification, and performance of the apparatus specified, who will supervise the installing, adjusting, and commissioning and compliance testing of the equipment.
Sulphur Dioxide (SO2): 4 5 ppmv, 12hour average as quantified with a CEMS;
Provide a controller actuated refractory lined damper which modulates secondary, under fire, and over flame atmosphere, made with steel conforming to ASTM A1011/A1011M, not less than 1.52 mm 16-gauge thick, operating without noise or flutter, and electric motor.
Find the connector in the absolute minimum clear vertical distance of 2450 mm 8 feet above a floor.

•Draft Equipment
Include sensory and wind loading Within the design exposure SEISMIC PROTECTION FOR MECHANICAL EQUIPMENT
Necessary to your motor control specified, as well as sufficient size to drive the equipment at the
3-  arid standard cubic meters (dscm); 4-  g (gr);
Specified capacity without exceeding the nameplate rating of the motor. Provide manual or automated control, protective or signal devices required for the operation specified, and any control wiring required for controls and devices specified however, not shown.

2.10INCINERATOR
Construct adsorber with 4.76 mm 3/16 inch stainless steel plate, ASTM A36/A36M or ASTM A283/A283M, markers C, B, or D. Space outside stiffeners as necessary to provide support to your skin. Seal weld all welded seams. Design joints to be constructed water and air tight. Design adsorber for a gas pressure of plus or minus 635 mm 25 inch water flow, or as demanded by the machine operation, whichever is greater, with any panel deflection not exceeding L/240.

•Gas Flow
Shop Drawings: Detail Installation Drawings
Cadmium: 22 gr/106dscf (0.05 mg/dscm), 12hour average as measured by EPA Reference Method 29;
Design roof purloins and beams for dead load along with an extra 0.24 kPa 5 psf uniformly spread load plus an extra 22.4 kN 5000 pound concentrated load also drift factor where applicable]. Determine wind uplift forces according to ASCE/SEI 7-05 Department 6 with a 100-year recurrence interval as well as requirements.

•Floor Loads
NEMA 4 control panels for exterior installations with electric strip heaters for corrosion control. Flush mount all controllers, instruments, and other equipment at the factory and also examine the assembly before shipment. Furnish a lock and two keys. All controllers and instruments shall be identified with nameplates.
Provide heat-resistant plastic Super Duty fireclay refractory conforming to ASTM C 27. The minimum depth of vinyl or throw able refractory is 1-10 mm 4 for walls and 1-10 for hearths. Attach refractory walls to the casing using metal steel or refractory anchors to form a monolithic structure that may withstand heat and support that the walls having a safety factor of 4. Prevent bulging and degradation of refractory due to heat stress by reinforcing, expansion ligaments, tendons, and also anchors.

2.5.11Exterior Walls
Factory paint supplies and component pieces with the manufacturer’s standard finish. Provide a weather resistant finish on most of items located away from the construction.

PART 3 EXECUTIONS

1.3EXAMINATION
5
Sterile the inner surfaces of the outer casing of the incinerator, the outside surfaces of the outer casing, the control panel, and piping, except corrosion-resistant steel, to base metal for removal of rust and oil until primer is applied at the factory.

1.4.2Factory Painting
Noise level at 305 mm 1 foot in any incinerator component will not exceed 85 dBA. Provide sound-dampening devices in your equipment.

2.5FURNACE CONSTRUCTION

2.5.7Primary Chamber
B.Make proper provision for contraction and expansion between incinerator base and floor; package the joint using suitable non-asbestos rope and match with appropriate chemical that will not become soft in a temperature of 40 degrees C 100 degrees F.
Provide dampers to place the atmosphere for the proper burning of the waste substances. Size ducts to minimize pressure drops, constructed of sheet steel conforming to ASTM A1011/A1011M, with seams and relations atmosphere tight.
D.Provide things such as a cat walk, strand, ladder, and guardrail where demanded.
Provide insulation conforming to ASTM C 612, Class 5 and made to be used with masonry or reinforced concrete or noncombustible material, with a flame resistant rating of less than 3 weeks, to prevent damage to the base from excess heating. As a minimum, provide insulation depth to limit the temperature of the outer casing to 66 degrees C 150 degrees F maximum within an ambient temperature of 21 degrees C 70 degrees F once the machine is operating at full-rated capacity.
Indicate and clearly identify an instrument evaluation group close every thermocouple well to join mobile equipment to verify installed equipment.
B.Provide each major part of equipment with the manufacturer’s name, address, type or style, model or serial number, and catalog number on a plate secured to the apparatus
Give you the gas flow to every module together using internal deflector plates developed to provide uniform gas distribution and velocities throughout the machine.

2.3.4Product Handling and Preparation System Supply an entire system to receive, store, and also supply product to the spray-dry adsorbers, with the capability of supplying sufficient product to your incinerator operating at 120 per cent of full load. Include in the system, but usually do not limit to, product storage silo complete with vibrating bin discharger, flexible relations, gravimetric feeders, attrition slaker, [lime] slurry and water Pumps, slaked product storage tank, and agitators.
D.Provide each burner using FM APP GUIDE recorded and approved flame
NOTE: Indicate design wind force that the stack will have to withstand. Additionally include in atomic layout seismic immunity, and organize with subparagraph Lateral Loads under paragraph
Performance: Fixing and Testing.
Inter Lock automatic control circuit systems and manual switches to stop hazardous conditions or the release of excessive levels of air pollutants.

•Control Panel
Construct bypass dampers to offer a reduction rate of less than one percentage in 1.5 times the maximum operating pressure.

2.4.4Test Holes and Test Groups
1Provide a sectional, circular crosssection exhaust stack of the kind, size, and quantity of segments in accordance with certain requirements of the stack and refractory manufacturer to adequately support the refractory lining, empower expansion, and also prevent cracking of this refractory; conforming to NFPA 211. Secure the refractory to the casing by steel anchors.
Provide electrical motor-driven equipment as stated, complete with motors conforming to NEMA MG 1, motor starters, and controllers, with enclosures as indicated. Provide electrical equipment, including motors and wiring with electrical traits as specified or suggested. Provide motor starters finish with thermal overload protection and other appurtenances
Lead: 44 gr/106dscf (0.10 mg/dscm), 12hour average as measured by EPA Reference Method 29
Provide a buff capable of delivering sufficient air for burners and less than 150 percent compared to mandatory by manufacturer.
Provide working floors, stairs and access systems for operation and maintenance, designed for
Construct observation vents of black steel or cast-iron tube or casing having a minimum depth of 3.42 mm 10 gauges and provided with heat-resistant glass cover, or an angular steel frame and closed plate with handle, for operation without gloves or other protective devices. Extend the tube or duct from the outside of the casing to less than half the depth of the refractory lining, and then weld the frame to the casing, to offer a gas-tight refractory opening.
Provide flue gas cleaning equipment capable of meeting emission requirements specified utilizing lime

2.8.2 Burners
Provide 4 mm sheet steel walls reinforced with steel framing and also provided with door frames and also installed on structural steel skids.

2.5.12Hearth
Owner and/or his representative endorsement are necessary for submittals. SUBMITTAL PROCEDURES:
By Weight)
5
B.Secure refractory to the doors in order to prevent sagging. Taper refractory edges to clear door-frames throughout movement of doors. Weld metal steel hooked bars to door cover to anchor the refractory, to enable safe operation by one person, and maintaining equilibrium of door manages to empower performance of doors without gloves or other protective devices.

c.Interlock charging doors primary burners and atmosphere source therefore that burner ignition shuts off and Underfire atmosphere dampers close when doors open. Gasket do or finishing must be together without non- asbestos packing.
Submit free parts data for each different item of material and equipment specified, after approval of detail drawings, and Contain a comprehensive list of parts and supplies, with current unit prices and source of source, and a list of these spare parts recommended by the manufacturer.
Submit detail setup drawings for your incinerator, base, stackand waste feed system, fuel burning equipment, ash removal system, flue gas cleaning system, and controllers. Include at length drawings all of equipment settings and relations, complete electrical wiring, controls, and connection diagrams and signify clearances required for maintenance and functionality.

2.10.3Welding
Provide test holesnear the evaluation group exhibited on the contract drawings, and match conventional pounds, 50 mm 2 inch diameter, black steel pipe welded to the casing. Extend the sleeve from the exterior of the casing not less than half the depth of the refractory lining. Form the

refractory opening by the conclusion of the pipe to the interior surface to shield the end of the sleeve from reflected heat, and match a threaded screw cap. Submit a copy of the Instrument Readings to the Contracting Officer.

2.3FLUE GAS CLEANING SYSTEM

Supply a whole flue gas cleaning system (FGC) composed of a Powdered activated carbon dioxide system, and a acid gas scrubber system capable of continuous functioning performance suitable for the incineration capacity and schedule defined.
Provide an incinerator effective at burning typical medical waste including plastics, paper of various kinds, and also a small portion of Type 4 (Pathological) waste.
Introduce combustion Underfire atmosphere to the key chamber below the waste material through ducts located across the side of the hearth]. Control over flame atmosphere with automatically controlled atmosphere intake vents in the backwall, for completing combustion of combustible substances to gases, or for reducing temperatures.
Provide a primary burner using an input power capable for keeping the absolute minimum continuous temperature at the secondary room of 871 degrees C (1600 degrees F), and also a minimum continuous temperature of 760 degrees C (1400 degrees F) in the roof close to the exit of the primary chamber.

b.Provide electrically spark-ignited burners governed by a varying set point indicator-controller flexible from minus zero to 1371 degrees C (minus 17 to 2500 degrees F) to use over the temperature limits recommended by the manufacturer.
Provide access openings in strategic locations for cleaning, inspection, and maintenance, being a gas tight quick-opening type. Elevate the adsorbers to permit 2130 mm feet access under the lowest point which would amass particulates. Find an access door in this lowest indicate permit removal of accumulated particulate; built to start using an accumulation of material .

•Structure
NOTE: Indicate the type and class of motor enclosure predicated upon the environment where the motor is to be properly used.
Provide volume storage capacity for several required products to sustain the absolute minimum operating amount of one week between deliveries.

2.3.3Adsorbers

•Access
C.Provide incinerator supports which permit free expansion and contraction of each part of the incinerator without placing undue stress on any region of the incinerator or feeling. Place anchor bolts accurately, and of decent length to install the incinerator. When embedded in concrete, then provide anchor bolts plates welded on the head and protect against damage before apparatus is installed.

1.5.7Stack Support
Carbon Monoxide (CO): 50 ppmv, 12hour ordinary as quantified by means of a Continuous Emissions Monitoring System (CEMS)
Provide and discover signaled, shooting and operating gear, including as shovel or mist shovel, hoe, rake, piece bar with metal handles, regularly employed for cleaning and firing incinerators, and also a fire tool rack. Provide steel stand, for example hinges along with other appropriate methods for preserving the gear in a fantastic way.
Provide an abrasion resistant refractory hearth made of heat-resistant, thermal-insulating clay conforming to ASTM C 401, Class R vinyl or throw able type, high-duty class, capable of supporting not less than double as hourly burning speed and preventing leakage of fluids.

2.5.13Doors
Certificates: Incinerator Operation and Maintenance Data Operating and Maintenance Instructions: Data Package.

2.10QUALITY ASSURANCE

2.10.1Asbestos Prohibition

•Access
Provide access openings at strategic locations for inspection, cleaning, and maintenance, all being a gas tight quick-opening type. Elevate the adsorbers to permit 2130 mm 7 feet access under the lowest point which would collect particulates. Locate an access door at this lowest point to permit removal of accumulated particulate; designed to open with an accumulation of material above it.

•Construction
Construct adsorber with at least 4.76 mm 3/16 inch thick steel plate, ASTM A36/A36M or ASTM A283/A283M, grades B, C, or D. Space external stiffeners as required to provide support for the vessel skin. Seal weld all structurally welded seams. Design joints to be assembled air and water tight. Design adsorber for a gas pressure of plus or minus 635 mm 25 inch water gage, or as required by the system operation, whichever is greater, and with any panel deflection not exceeding L/240.

•Gas Flow
Provide the gas inlet to each module with internal deflector plates designed to provide uniform gas distribution and velocities through the unit.

2.3.4Product Handling and Preparation System Provide a complete system to receive, store, and supply product to the spray-dry adsorbers, with the capability of supplying sufficient product for the incinerator operating at 120 percent of full load. Include in the system, but do not limit to, product storage silo complete with vibrating bin discharger, flexible connections, gravimetric feeders, attrition slaker, [lime] slurry and water Pumps, slaked product storage tank, and agitators.

2.3.5Powdered Activated Carbon
Provide powdered activated carbons (PAC) specifically made for the removal of mercury, dioxins, and furans with a high percentage of pore sizes in the 20 to 50 angstrom range, with PAC completely devolatilized.

2.3.6Pebble Quick Lime Analysis
Provide flue gas cleaning equipment capable of meeting emission requirements specified using lime

2.8.2 Burners
a.Provide LPG burners for the primary and secondary combustion chambers, with each burner as a complete assembly including fuel and control systems, and accessories.
Provide a primary burner with an input capacity capable for maintaining a minimum continuous temperature in the secondary chamber of 871 degrees C (1600 degrees F), and a minimum continuous temperature of 760 degrees C (1400 degrees F) at the roof near the exit of the primary chamber.

b.Provide electrically spark-ignited burners regulated by a variable set point indicator-controller adjustable from minus zero to 1371 degrees C (minus 17 to 2500 degrees F) to operate within the temperature limits recommended by the manufacturer.
c.Provide controllers actuated by a thermocouple or shielded bimetallic sensor, with the mounting, flame shape, and characteristics of each burner suitable for the incinerator chamber in which the burner is installed. Flame impingement on the incinerator wall is not permitted.
d.Provide each burner with FM APP GUIDE listed and approved flame
failure protection. Sight the flame safeguard sensor to detect only the burner flame for which it is designed, with burners which are easily moved out of firing position for inspection, cleaning, adjustment, and maintenance. Locate thermocouples in the primary and secondary chamber, suitable for a maximum temperature of 1260 degrees C 2300 degrees F. Provide a continuous secondary burner which modulates from high to low fire, based on the temperature of the secondary chamber. Provide an on/off firing burner in the primary chamber.

•Stack
Important: minimum height of the chimney should less than 15 meter measured from roof of top roof of incinerator room and not less than 5 meter higher than any building in distance of 1km from incinerator room, also the outlet velocity of flue gases should not less than 7 Meter per second
1Provide a sectional, circular cross section exhaust stack of the type, size, and number of sections in accordance with the requirements of the stack and refractory manufacturer to adequately support the refractory lining, permit expansion, and prevent cracking of the refractory; conforming to NFPA 211. Secure the refractory to the casing by steel anchors.
2Attach a corrosion-resistant steel spark arrestor fabricated of 1.21 mm 18-gauge, 13 mm 1/2 inch mesh wire screen to the top of the stack. Provide a corrosion-resistant steel weather cap. The

temperature of the casing shall not exceed 50 degrees C in an ambient temperature of 21 degrees C 70 degrees F. Provide adequate support for any stack installed on top of the incinerator without placing any of the load on the refractory walls of the incinerator.

•Breeching
Provide connectors to connect the incinerator to the stack unless the stack is attached directly to the incinerator, in accordance with NFPA 211.
Locate the connector at a minimum clear vertical distance of 2450 mm 8 feet above the floor.

•Draft Equipment
Provide equipment which supplies the correct amount of air to permit complete controlled combustion. Include forced draft fans, draft gauges, dampers, damper actuators, linkage, and appurtenances necessary to maintain a negative draft in primary chamber in order to provide optimum performance at all operating rates.

•Air Ducts
Introduce combustion under fire air to the primary chamber below the waste material through ducts located along the side of the hearth]. Control over fire air with automatically controlled air intake ports in the back wall, for completing combustion of combustible materials into gases, or for reducing operating temperatures.
Provide dampers to set the air for the proper burning of the waste materials. Size ducts to minimize pressure drops, constructed of sheet steel conforming to ASTM A1011/A1011M, with all seams and connections air tight.

•Fan
Provide a fan capable of delivering sufficient air for burners and not less than 150% than the required by manufacturer.
The centrifugal type with forward-curved blades, and statically and dynamically balanced fan wheels Comply with the fan standards of AMCA 99, and CID A-A-59222, centrifugal furnace fans, rated for flow rate, pressure, power, speed of rotation, and efficiency in accordance with AMCA 210. Provide induced draft fans, where required, designed for handling hot flue gas at the maximum outlet temperature of the incinerator.

2.8.7 Ash Removal
Provide the unit with provisions for automatic removal of the ash through the cleanout door upon completion of the burnout and cool-down cycles. Ash removal shall be as indicated for use with portable containers.

1.4PAINTING AND FINISHING

1.4.1Treatment
Clean the inner surfaces of the outer casing of the incinerator, the exterior surfaces of the outer casing, the control panel, and piping, except corrosion-resistant steel, to base metal for removal of oil and rust before primer is applied at the factory.

1.4.2Factory Painting
Factory paint equipment and component items with the manufacturer’s standard finish. Provide a weather resistant finish on all items located outside the building.

PART 3 EXECUTIONS

1.3EXAMINATION
After becoming familiar with all details of the work, verify dimensions in the field, and advise the Contracting Officer of any discrepancy before performing the work.

1.4MANUFACTURER’S SERVICES
Provide the services of the manufacturer’s representative experienced in the installation, adjustment, and operation of the equipment specified, who will supervise the installing, adjusting, and commissioning and compliance testing of the equipment.

1.5INSTALLATION
Install equipment and material as indicated and in accordance with manufacturer’s written instructions and NFPA 82, with combustion air supply and ventilation in accordance with NFPA 31 or NFPA 54 as applicable.

1.5.6Foundation
a.Construct the incinerator foundation using CAST-IN-PLACE CONCRETE. Extend the foundation a minimum of 1 m 3 feet beyond the incinerator on 3 sides and not less than 2.5 m 8 feet on the side where the ashes are removed. Install the incinerator in accordance with manufacturer’s written instructions.
b.Make proper provision for expansion and contraction between incinerator foundation and floor; pack the joint with suitable non-asbestos rope and fill with suitable compound that will not become soft at a temperature of 40 degrees C 100 degrees F.
c.Provide incinerator supports which permit free expansion and contraction of each portion of the incinerator without placing undue stress on any part of the incinerator or setting. Set anchor bolts accurately, and of adequate length to install the incinerator. When embedded in concrete, provide anchor bolts with plates welded on the head and protect against damage until the equipment is installed.

1.5.7Stack Support
NOTE: Indicate design wind force that the stack will have to withstand. Also include in structural design seismic resistance, and coordinate with subparagraph Lateral Loads under paragraph
Provide stack support in accordance with NFPA 82 and NFPA 211, as applicable. Provide vertical and lateral supports for exterior chimneys to withstand wind forces.

Smokeless Medical Waste Incinerator HICLOVER Model YD-30M

Model YD-30M

Primary Combustion Chamber

Secondary Combustion Chamber

Mix Combustion Chamber

Smoke Filter Chamber

Incinerator  Control Case

Stainless Steel Chimney: 1.5 Meter

Italy oil/gas burner: 02 sets

Oil Tank (if oil fuel): 100Liters

Video material: https://twitter.com/i/status/1279030799182905345 

Model		YD-30M
Picture
Burning Rate		average 20 kgs/hour
Feed Capacity		average 40 kgs/feeding
Paimary Combustion Chamber		200 Liters
Secondary Combustion Chamber		100 Liters
Mix Combustion Chamber		Yes
Feed Mode		Manual
Voltage		220V
Power		0.59Kw
Fuel Type		Diesel Oil/Natural Gas/LPG
Burner		Italy Original
Oil Consumption (Diesel Oil)		average 8.4 kg/hour
Gas Consumption (Natural Gas)		average 10.1 m3n/hour
Internal Dimensions		80 x 50 x 50cm (primary chamber)
External Dimensions		160*110*230cm (without chimney)
Temperature Monitor		Yes
Oil Tank Capacity(if oil fuel)		100 Liters
Door Opening		40 x 36cm
Chimney Length		1.5 Meters
Chimney Type		Stainless Steel
Equipment Gross Weight		1700 kgs
Operation Technical Specifications
Primary Chamber Temperature		800℃–1000℃
Secondary Chamber Temperature		1000℃-1200℃
Residency Time		2.0 Sec.
Burning Efficiency		＞98%
Waste Lower Calorific Power		3000Kcal

• Burning Waste: Medical Waste

• Fuel: diesel type, or gas type(natural gas or lpg), or both(exhcange oil-gas burner)

• Processing Capacity: 15 – 20 kg/hr  

• Door Size: 400mm x 360mm   

• Body Size: 1600*1100*2300mm(without chimney)

• Operating Temperature: 800 – 1200 deg. C   

• Double Chamber: Primary and Secondary Chambers   

• Internal lining:refractory cement

• Monitoring Facility for:  

• Supplied complete with chimney   

• Power Supply: 220-240V, 50Hz, 0.25kW

 

http://www.waste-incinerator.net/ 

http://www.waste-incinerator.net/post-sitemap.xml 

HICLOVER – Medical Environmental, WWW.HICLOVER.COM, Waste Incinerators, 

Medical Waste Incinerator,Pet Animal Cremation, Solid Waste Incinerators

HICLOVER Solution for Fighting COVID-19, Medical Waste Incinerator(Containerized Mobile Incinerator)

Tel:  +86-25-8461 0201   

Mobile: +86-13813931455(whatsapp/wechat)
Website: www.hiclover.com  
Email: [email protected]
Email: [email protected]  

Nanjing Clover Medical Technology Co.,Ltd.

https://www.google.com/search?ei=EwsCX9fjEM_L0PEPks2xYA&q=site%3Awaste-incinerator.net&oq=site%3Awaste-incinerator.net&gs_lcp=CgZwc3ktYWIQA1AAWABg34cGaABwAHgAgAH6A4gB-gOSAQM1LTGYAQCqAQdnd3Mtd2l6&sclient=psy-ab&ved=0ahUKEwiXufvrzrbqAhXPJTQIHZJmDAwQ4dUDCAs&uact=5 

 

2020-07-07

Dual heat burners and dual chamber incinerator Burning capacity up to 30 Kg per hour with wet scrubber

Dual heat burners and dual chamber incinerator Burning capacity up to 30 Kg per hour

Main Product List

Primary Combustion Chamber(Main body stainless steel)

Secondary Combustion Chamber(Main body stainless steel)

Mix-Combustion Chamber

Wet Scrubber( Washing Tower)(Main body stainless steel)

Incinerator Control Case

Chimney:5.0Meters  Stainless Steel

Italy gas burner: 02 sets

Oil Tank (if oil fuel): 100Liters

Model	YD-30C
Feed Capacity	Average 50 kgs per feeding
Burning Rate	Average 30 kgs per hour
Burning Time per Feed	2 hours
Voltage	380V
Power	6 Kw
Fuel	Natural Gas
Burner	Italy Burner
Feed Mode	Manual
Fuel consumption (Oil)	10.2-20.0 Kgs/Hour
Fuel consumption (Gas)	12.2-24.0m3/Hour
External Dimensions	170 x 140 x 190cm (main body)
Internal Dimensions	55 x 55 x 85cm(Primary Chamber)
Waste combustion chamber	250Liters
Post Combustion Chamber	140Liters
Oil Tank Capacity	100 Liters
Door Opening	38 x 48cm
Chimney	5.0M
Gross Weight	3300kgs
Chamber Material	Refractory Concrete
Max. Heat Value	200,000Kcal/Hr.
Operation Technical Specifications
Solid Chamber temperature	8000C -10000C
Gas Chamber temperature	10000C -12000C
Chamber Anti-Rate	13500C
Residency time	2.0 Sec.
Burning efficiency	＞98%
Waste Lower Calorific Power	3000Kcal

Water showering cyclone air cleaner Stain less steel 304 grade sheet for water scrub chamber

HICLOVER – Medical Environmental 

---

 

WWW.HICLOVER.COM

Waste Incinerators

Medical Waste Incinerator

Pet Animal Cremation

Solid Waste Incinerator

Tel:  +86-25-8461 0201   

Mobile: +86-13813931455(whatsapp/wechat)
Website: www.hiclover.com  
Email: [email protected]
Email: [email protected]  

Nanjing Clover Medical Technology Co.,Ltd.

 

2020-02-26

Solid Waste Incinerators

The Contractor shall provide a Cremation System package for  TWO (02) Cremators and system approved by related authority, which must fit into the allocated area as shown on the plan drawings. The work shall include but not limited to design preparation, authority design approval, supply, fabricate, construct, commissioning, testing, operational approval, provide training and also warranty of the system package. The work shall include all preliminaries, related civil and structural work, mechanical and electrical work and all external work required for the proper completion and operational of the system and as follows :The incinerator will be used for a group of private multi profile hospitals.

The hourly-generated waste is about 100kg per hour, but with 1000kg daily amount.

Due to the economic situation in Bulgaria now, our researches shows that a 100kg/hour system can fit the needs set in the project.

Please, offer us an Incinerator system that can match the parameters described above. We are ready to give information that is more detailed if you need such one. Within the technical specifications of you product we need to have full details of the parameters of exhaust gases, with all certificates you have about the environmental safety regarding EU directives.

1. All preliminaries which shall include but not limited to providing work insurances, taxes, mobilisation and demobilisation, contract management and supervision, design and professional fee, authority design approval, operational approval, site preparation, temporary storage, health environmental safety and security, setting out, CIDB levy, duties, deposits, fees, charges, contribution but not excluding only the bank guarantee to the authority JPP which shall be provided by the Client, progress reporting and other required preliminaries for successful completion of the work.This type of incinerator is what you have described as a ‘low temperature thermal decomposition incinerator’.  We can speed up the burning process by using hot air from a downstream process which can be fed back into the incinerator to raise the burning temperature.
considerably. These kinds of incinerators are the sort that would probably have been made and used many years ago before the anti pollution regulations were brought in. We believe that they would be very simple and cheap to manufacture for a company such as yours, as long as a large sales volume could be obtained. We believe that our technology will create a large need for this type of incinerator and would also make a good business opportunity for a company, such as Clover, who is able and willing to manufacture and supply them. I am sure that this simple type of incinerator could be easily modified to enable automatic charging and probably also automatic cleaning?

2. All structural, building and architectural work which includes but not limited to construction of all reinforced concrete work, chimney, structural steel work and all building work for all necessary requirements, operational and control panel system for proper completion and successful operation of the syste. The Contractor must make good all the works being disturbed.We want a very simple, single combustion chamber, incinerator which is capable of burning all types of waste and rubbish products. We will be treating the emissions from the incinerator in another process so we do not have to have scrubbing or other cleaning equipment to avoid pollution.
The incinerator is required to operate 24/7 continuously so it needs to be able to be cleaned whilst still operating. The waste materials being burned will contain non flammable materials and these will need to be cleared out of the incinerator. We would like this cleaning to be as simple as possible. The same applies to the loading of rubbish into the incinerator, which we would like to be able to be done automatically if possible.

3. All mechanical and eletrical works which includes but limited to supply, deliver and installation of all valves, penstock, screens, pumps, float swithces, flexible connector, pressure pipe works, blower, hot dipped galvanised lifting davits, air diffusers, hot dipped galvanised handrailings, hot dipped galvanised gratings, switch boards, cabling and wirings, lighting, earthing, metering, lighting protection, flow measurement and flow recorders, testing & comissioning and all necessary for proper completion and successful operational of the system.

TOTAL CARRIED TO COLLECTION

Design and Build approved gas cremation system
(Cont’d)

4. The Contractor shall provide and fully comply with all requirements by the related authority during design stage, design approval, inspection and after inspection, handing over of the system package whether it is clearly shown or not but deemed necessary for successful completion and satisfaction to the authority. The Contractor must allow in his tender price all direct and indirect cost at no extra cost to the Client for all such compliances.7.    Type of waste  : Bio-medical / Hazardous / Municipal / Trash  = ALL and Mixed
8.    Any other : Rubber, rubber tyres, Batteries, green waste, paper and cardboard
9.    Quantity of waste generated per day in kg : 3 -5 tonnes per day
10.    Duration – incinerator will be used per day : 1 – 8 hours / 1 – 16 hours / Continuous
11.    Approximate moisture content: Variable
12.    Local incinerator operating and emission standards : India / EURO / US-EPA  Australia
13.    What is the height of the chimney required? : No chimney is required. Flue length should be approximately 2 to 3 metres to join to a downstream process
14.    Fuel proposed to be used :  LDO / HSD / FO / SKO/ Gas / Other  – No fuel required – Intended to free burn waste products
15.    Availability of power and type : Electricity if required
16.    Details of space available :  Not restricted
17.    Do you require an automatic loading system? : [X ] Yes         [ ] No
18.    Do you require a gas scrubbing system? : [ ] Yes         [X ] No
19.    How soon do you require the system to be delivered? : Sea Freight to Port of Cairns, Queensland, Australia in approximately Two months
20.    City and country of use :  Australia
21.    Whether the location is a coastal area : [ ]Yes         [X ] No
22.    Any other specific requirements: Primary combustion chamber only is required. Solid and inflammable waste products need to be capable of being recovered from the incinerator easily using an automated procedure. This is because the incinerator will be required to operate 24/7. Rotary kiln or moving floor may be considered if deemed practical by the supplier. One initial incinerator is required for a proof of concept project and future orders for the successful supplier, following successful implementation of this project, are likely to be significant.
23.    It would be most useful if the supplier could send a video of the incinerator in operation or diagrams and pictures to show how it works.

5. The Contractor shall be responsible for all maintenance of the system, routine and periodical maintenance such as cleaning etc. during, upon completion, before and after inspection. The maintenance shall be in fully compliance to the authority requirements and satisfaction and shall be deemed included in the Contractor tender price and at no extra cost to the Client.

6. The Contractor must submit to the S.O their proposed system package detail, which includes authority approval and an A4 or A3 preliminary dimensioned system layout fitting into area allocated in the plan drawing.

7. For maintenance and services during Defect Liability Period, respond period to any complaint for the Contractor to attend shall be within 24hours

8. The Cremators package shall, inter alia, inclusive the following scope:

– Furnace Chamber and Afterburner

– Combustion System

– Control Panel

– Single refactory lined chimney for 2 cremators

– Flue Gas Sampling Platform

– Electrical wiring within the system requirements

– Raking Tools

– Ashbox

– Approval from DOE / Local Authority

– Any other scope/works required for the systems

Medical Waste treatment unit

Medical Waste treatment unit

The medical waste treatment unit shall be environmentally-friendly, and have a capacity of
about 200-300kg per batch , to enable treatment of medical waste generated in a 160-bed
hospital
The equipment should be self-steam generating if
steam is needed for the sterilization process.
The medical waste treatment unit shall be capable of processing the following:
• Bagged waste, in ordinary bags.
• Sharps containers.
• Liquid containers.
• Cardboard containers.
• Metal objects.
• Pathological waste.
The medical waste treatment unit shall be able to
• mix the waste and shred it into small pieces
• sterilize the waste.
• Dehydrate the waste
• Compact the waste to reduce its volume
Unloading of treated waste shall be automatic, with further shredding facility
All operating features shall be safe, automated
1.  The entire cycle shall be computerized with all essential operating parameters locked in and
password protected.
2.  There shall be a documentation feature of the treatment cycle,
The unit shall have a manual mode of operation in case of failure of the automatic features
The following parameters shall be displayed:
1.  Power on
2.  sterilization indicator light
3.  auto/manual switch
4.  open door warning light
5.  steam pressure
6.  cycle chart recorder

lab biological waste incineration

1- There are more than 4000 Cubic Meter sludge are packed in Plastic Bags & stored more than 10 years
2- Cleaning and treated 2500 Cubic Meters inside the Oil Tank.
– the waste is biological and coming from lab, can be heavily hazardous in case of terror attack or epidemics or similar events.
– the input is low and occasional, the lab is used when terror or epidemy alarm occures. But occasionly incineration of human or animal carcasses can be demanded.mobile incinerator to work along with a mobile biolab for first responders.is the smallest incinerator available in the market. incinerator of capacities of 10kg/h and 20 kg/h for hospital waste.

Gas Incinerator medical waste

Recently one of clients informed us their intention to procure 1 unit Gas Incinerator.medical waste incinerator to burn the wastes of hospitals in Egypt , the capacity required is 5 tons per day.the medium incinerator that uses both electricity and oil.A SMALL PET CREMATORY WITH GAS