JPH0823028B2 - Coal gasifier - Google Patents

Coal gasifier

Info

Publication number
JPH0823028B2
JPH0823028B2 JP60048202A JP4820285A JPH0823028B2 JP H0823028 B2 JPH0823028 B2 JP H0823028B2 JP 60048202 A JP60048202 A JP 60048202A JP 4820285 A JP4820285 A JP 4820285A JP H0823028 B2 JPH0823028 B2 JP H0823028B2
Authority
JP
Japan
Prior art keywords
gasification furnace
combustor section
pressure
gasification
pressure vessel
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Fee Related
Application number
JP60048202A
Other languages
Japanese (ja)
Other versions
JPS61207492A (en
Inventor
壽夫 羽田
正道 柏崎
紀一郎 小川
一広 太田
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Denryoku Chuo Kenkyusho
Mitsubishi Heavy Industries Ltd
Original Assignee
Denryoku Chuo Kenkyusho
Mitsubishi Heavy Industries Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Denryoku Chuo Kenkyusho, Mitsubishi Heavy Industries Ltd filed Critical Denryoku Chuo Kenkyusho
Priority to JP60048202A priority Critical patent/JPH0823028B2/en
Publication of JPS61207492A publication Critical patent/JPS61207492A/en
Publication of JPH0823028B2 publication Critical patent/JPH0823028B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

Links

Description

【発明の詳細な説明】 (産業上の利用分野) 本発明は石炭のガス化装置に関する。TECHNICAL FIELD The present invention relates to a coal gasifier.

(従来の技術) 従来の石炭ガス化炉(1段噴流床式)を第3図に示
す。第3図において圧力容器21の内側に100〜150mm以上
の厚さの耐火断熱材22を設け、上部にガス化炉23、下部
にクーラ24を構成している。ガス化炉23の上部には石
炭、或いは油、空気、或いは酸素を供給する供給手段25
を配置しており、クーラ部24内にはラデイアントクーラ
26を配置し、下部にはガス出口27が設けられている。ま
た、クーラ部24の下部には灰ホツパ28が形成されてい
る。
(Prior Art) A conventional coal gasification furnace (one-stage spouted bed type) is shown in FIG. In FIG. 3, a refractory heat insulating material 22 having a thickness of 100 to 150 mm or more is provided inside the pressure vessel 21, a gasification furnace 23 is provided in the upper portion, and a cooler 24 is provided in the lower portion. A supply means 25 for supplying coal, oil, air, or oxygen is provided above the gasification furnace 23.
Is placed in the cooler section 24.
26 is arranged and a gas outlet 27 is provided in the lower part. Further, an ash hopper 28 is formed below the cooler portion 24.

装置の起動に際しては、油と空気または酸素とを供給
手段25からガス化炉23内に供給して燃焼させてウオーミ
ングを行う。ガス化炉23内が所定の温度、例えば摂氏14
00度になると、油から徐々に石炭に切り変えていく。石
炭に切り変わると空気または酸素の供給量を下げ、石炭
を不完全燃焼させてCO,H2ガス等の可燃性ガスを生成さ
せる。可燃性ガスはガス化炉23からクーラ部24に入り、
ここでラデイアントクーラ26により摂氏1000〜1100度程
度まで冷却される。摂氏1000〜1100度程度まで冷却され
たガスはガス出口27から出てゆき、熱交換器に送られ
る。ガス化炉23で生成されるスラグはクーラ部24を通つ
て灰ホツパ28に落下し、灰ホツパ28下部の排出口から排
出される。
When starting the apparatus, oil and air or oxygen are supplied from the supply means 25 into the gasification furnace 23 and burned to perform warming. The gasification furnace 23 has a predetermined temperature, for example, 14 degrees Celsius.
At 00 degrees, it gradually switches from oil to coal. When switched to coal, the supply of air or oxygen is reduced, and the coal is incompletely burned to produce combustible gases such as CO and H 2 gas. The flammable gas enters the cooler section 24 from the gasification furnace 23,
Here, it is cooled to about 1000 to 1100 degrees Celsius by the radiant cooler 26. The gas cooled to about 1000 to 1100 degrees Celsius exits from the gas outlet 27 and is sent to the heat exchanger. The slag generated in the gasification furnace 23 passes through the cooler section 24 and drops into the ash hopper 28, and is discharged from the discharge port below the ash hopper 28.

このような従来の1段噴流床式石炭ガス化炉において
は灰の溶融流出を確保するため、炉全体を高温に維持す
る必要がある。このため次のような欠点が生ずる。
In such a conventional one-stage spouted bed coal gasification furnace, it is necessary to maintain the temperature of the entire furnace at a high temperature in order to secure the melting and outflow of ash. Therefore, the following drawbacks occur.

炉全体として空気または酸素投入量を増加させて温
度を高く保つためガス化効率が悪い。高い発熱量のガス
が得にくいため酸素によるガス化が不可欠となる。
Gasification efficiency is poor because the temperature of the entire furnace is increased by increasing the amount of air or oxygen input. Gasification with oxygen is indispensable because it is difficult to obtain a gas with a high calorific value.

圧力容器に熱が伝わらないように厚い耐熱・耐火材
(一般に100〜150mm以上)を使用しているため放熱量が
低く、耐熱・耐火材は炉内と同一温度になるので寿命が
短い。このため炉の温度をあまり高くできないので灰の
融点の高い石炭にはなじまない。即ち炭種適合性におと
る。
A thick heat-resistant / refractory material (generally 100 to 150 mm or more) is used to prevent heat from being transferred to the pressure vessel, resulting in low heat dissipation. The heat-resistant / refractory material has the same temperature as in the furnace, so its life is short. For this reason, the temperature of the furnace cannot be raised so high that it is not suitable for coal with a high melting point of ash. That is, it is compatible with coal type.

熱交換器入口のガス温度を灰の軟化温度以下に制御
するためには水クエンチによる冷却あるいはラデイアン
トボイラによる水側への放熱が不可欠であり、その分ガ
ス化効率が悪くなるという欠点を持つ。
In order to control the gas temperature at the heat exchanger inlet below the softening temperature of ash, cooling by water quenching or heat radiation to the water side by the radiant boiler is indispensable, and gasification efficiency deteriorates accordingly. .

更に耐圧容器内面に直接耐火断熱材を施工し水冷壁
を有しない場合には耐火材の厚みが大きくなり、起動の
ウオーミングに長時間を要するとともに負荷変動時にお
いても制約が生ずることとなるという欠点を有する。
Furthermore, when the refractory insulation is applied directly to the inner surface of the pressure vessel and there is no water-cooling wall, the thickness of the refractory becomes large, and it takes a long time to warm up the start-up, and restrictions occur even when the load changes. Have.

(発明が解決しようとする問題点) 本発明は従来の石炭ガス化炉の欠点を解消し (1) 高効率ガス化炉の実現(火力発電要対応);水
クエンチあるいはラデイアントクーラによる無効分をな
くし、ガス化効率を高める。
(Problems to be Solved by the Invention) The present invention solves the drawbacks of the conventional coal gasification furnace (1) Realization of a high-efficiency gasification furnace (necessary for thermal power generation); water quench or ineffective components by a radiant cooler To improve gasification efficiency.

(2) 炭種適合性の拡大;水冷壁構造と薄い耐熱・耐
火材ライニング施工の採用により熱損失をできるだけ少
なくしながら炉の温度を上昇せしめ灰の溶融温度の高い
炭種についてもこれを利用可能にする。
(2) Expansion of compatibility of coal types; water cooling wall structure and thin heat-resistant / refractory lining construction are used to raise the temperature of the furnace while minimizing heat loss, which is also used for coal types with high melting temperature of ash. enable.

(3) 高い信頼性のガス化炉の実現;水冷壁による高
温ガスの遮断 (4) 運転操作性の高いガス化炉の実現;薄い耐火・
耐熱材の採用によるウオーミング時間の減少。
(3) Realization of highly reliable gasification furnace; shutting off high temperature gas by water cooling wall (4) Realization of gasification furnace with high operability; thin fire resistance
Reduced warming time by using heat resistant materials.

を可能とする石炭ガス化装置を提供しようとするもの
である。
The present invention is intended to provide a coal gasifier that enables the above.

(問題点を解決するための手段) 本発明は、 (1) 2段噴流床方式とし、ガス化反応時の吸熱特性
を主として利用してガス化を効率的に行わしめ、炉出口
における水クエンチなどの冷却方式を不要にした点、 (2) 薄い耐火材のライニングにより炉内を高温(14
00〜1800℃)に維持し、炭種適合性を広げることを可能
とした点、 を特徴とする石炭ガス化装置であり、下記の技術構成を
有するものである。
(Means for Solving Problems) The present invention provides (1) a two-stage spouted bed system in which gasification is efficiently performed mainly by utilizing endothermic characteristics during a gasification reaction, and a water quench at a reactor outlet is performed. (2) The inside of the furnace is heated to a high temperature (14
This is a coal gasification system characterized in that it can be maintained at a temperature of 00 to 1800 ° C) and the compatibility of coal types can be expanded. It has the following technical configuration.

(1) 燃焼を燃焼させて高温の雰囲気を形成するコン
バスタ部、同コンバスタ部の上部に位置してコンバスタ
部と連通し、燃料を乾留・熱分解させるとともに前記コ
ンバスタ部からの高温のガスと燃料とを混合するディフ
ューザ部、及び同ディフューザ部の上部に位置してディ
フューザ部と連通し、吸熱のガス化反応をおこなわせて
前記ディフューザ部からの炭素粒をガス化させるレダク
タ部からなるガス化炉を有し、同ガス化炉を圧力容器内
に収納し、前記ガス化炉と前記圧力容器との間に炉内圧
力と圧力容器内圧力との差圧により制御される弁の操作
により加圧不活性ガスを注入してガス化炉内圧によるガ
ス化炉周壁の変形を防ぐようにしたことを特徴とする石
炭ガス化装置。
(1) A combustor section that combusts combustion to form a high temperature atmosphere, and is located above the combustor section and communicates with the combustor section to carbonize and thermally decompose the fuel, and at the same time, to generate high temperature gas and fuel from the combustor section. A gasifier comprising a diffuser part for mixing with and a reductor part located above the diffuser part and communicating with the diffuser part to cause an endothermic gasification reaction to gasify carbon particles from the diffuser part. The same gasification furnace is housed in a pressure vessel, and pressure is applied between the gasification furnace and the pressure vessel by operating a valve controlled by a pressure difference between the pressure inside the pressure vessel and the pressure inside the pressure vessel. A coal gasification device, characterized in that an inert gas is injected to prevent deformation of the peripheral wall of the gasification furnace due to internal pressure of the gasification furnace.

(2) 燃焼を燃焼させて高温の雰囲気を形成するコン
バスタ部、同コンバスタ部の上部に位置してコンバスタ
部と連通し、燃料を乾留・熱分解させるとともに前記コ
ンバスタ部からの高温のガスと燃料とを混合するディフ
ューザ部、及び同ディフューザ部の上部に位置してディ
フューザ部と連通し、吸熱のガス化反応をおこなわせて
前記ディフューザ部からの炭素粒をガス化させるレダク
タ部からなり、周壁が水冷壁と同水冷壁の内部側に全域
にわたりライニングされた薄い耐熱・耐火材で形成され
たガス化炉を有し、同ガス化炉を圧力容器内に収納し、
前記ガス化炉と前記圧力容器との間に炉内圧力と圧力容
器内圧力との差圧により制御される弁の操作により加圧
不活性ガスを注入してガス化炉内圧によるガス化炉周壁
の変形を防ぐようにしたことを特徴とする石炭ガス化装
置。
(2) A combustor section that combusts combustion to form a high temperature atmosphere, and is located above the combustor section and communicates with the combustor section to dry-distill and thermally decompose the fuel, and at the same time to supply the high temperature gas and fuel from the combustor section. And a diffuser portion that is mixed with, and communicates with the diffuser portion located above the diffuser portion, and includes a reducer portion that gasifies carbon particles from the diffuser portion by causing a gasification reaction of endotherm, and the peripheral wall is It has a gasification furnace made of thin heat-resistant and refractory material lined all over the water cooling wall and the inside of the water cooling wall, and the gasification furnace is housed in a pressure vessel,
A gasification furnace peripheral wall by the pressure inside the gasification furnace by injecting a pressurized inert gas between the gasification furnace and the pressure vessel by operating a valve controlled by the pressure difference between the pressure inside the furnace and the pressure inside the pressure vessel A coal gasifier characterized by preventing deformation of the coal.

第1図に本発明による石炭ガス化装置の一実施態様の
構造を示し、第2図に本発明装置の作用・効果の理解を
助ける本発明装置のガス化原理図を示す。
FIG. 1 shows the structure of one embodiment of the coal gasifier according to the present invention, and FIG. 2 shows a gasification principle diagram of the present invention device which helps to understand the operation and effect of the present invention device.

(構成) 第1図において、ガス化炉は通常約40kg/cm2Gで操作
されるもので、コンバスタ1、デイフユーザ2およびレ
ダクタ3の三つの部分からなり、水冷壁4にて周囲を囲
まれ、炉内側に比較的薄い(約50mm以下)耐熱・耐火材
5が内張りされている。
(Structure) In FIG. 1, the gasification furnace is normally operated at about 40 kg / cm 2 G, and is composed of three parts, a combustor 1, a diff user 2, and a reductor 3, surrounded by a water cooling wall 4. A relatively thin (about 50 mm or less) heat-resistant / refractory material 5 is lined inside the furnace.

コンバスタ1には石炭10の一部、循環チヤー16および
空気またはO211が投入され、高温状態(1400〜1800℃)
に維持され、灰の溶融排出が行われるとともに、上部で
のガス化に必要な熱を供給する。(第2図参照)、ガス
化剤(空気またはO2)は図示省略のコンプレツサにより
昇圧され、炉内に供給される。
The combustor 1 is charged with a part of the coal 10, the circulating chain 16 and air or O 2 11, and is in a high temperature state (1400 to 1800 ° C).
The ash is melted and discharged, and the heat required for gasification in the upper part is supplied. The gasifying agent (air or O 2 ) is pressurized by a compressor (not shown) and supplied into the furnace (see FIG. 2 ).

デイフユーザ2には残りの石炭12が投入され乾留され
るとともに、ガスとの均一な混合、流れの平均化が行わ
れる(第2図参照)、コンバスタ1、デイフユーザ2へ
の石炭の投入は、微粉砕した石炭を図示省略のロツクホ
ツパシステムにより加圧され、炉内に搬送される。
The remaining coal 12 is charged to the diff user 2 for carbonization, and even mixing with the gas and averaging of the flow are performed (see FIG. 2). The amount of coal charged to the combustor 1 and the diff user 2 is small. The crushed coal is pressurized by a rockhopper system (not shown) and conveyed into the furnace.

レダクタ3においては炭素粒のガス化およびガスの冷
却が行われ(第2図参照)発生したチヤーは図示省略の
捕集器によつて捕集され、前記コンバスタ1に循環チヤ
ーとして再投入される。(第2図参照) コンバスタ1下部には灰ホツパ9が設けられ流下した
溶融スラグはここで水冷され、水冷スラグ15として外部
に排出される。(第2図参照) 水冷壁4には入口管寄8から冷却水が供給され水冷壁
4を水冷するようにしている。
In the reductor 3, the carbon particles are gasified and the gas is cooled (see FIG. 2), and the generated char is collected by a collector (not shown) and is re-introduced into the combustor 1 as a circulation charge. . (Refer to FIG. 2) An ash hopper 9 is provided below the combustor 1, and the molten slag that has flowed down is water-cooled here, and is discharged to the outside as a water-cooled slag 15. (Refer to FIG. 2) Cooling water is supplied to the water cooling wall 4 from the inlet pipe side 8 to cool the water cooling wall 4.

レダクタ3出口には熱交換器7が設置されガスを所定
温度(約400℃)まで冷却するとともに、有効な熱回収
を行う。
A heat exchanger 7 is installed at the outlet of the reductor 3 to cool the gas to a predetermined temperature (about 400 ° C.) and to effectively recover heat.

ガス化炉全体は圧力容器6内に収容され、炉内と圧力
容器との間の空間部に差圧検出器13によつて制御される
弁の作用によつて不活性ガス14が注入され、差圧が制御
されるようになつている。
The entire gasification furnace is housed in a pressure vessel 6, and an inert gas 14 is injected into the space between the inside of the furnace and the pressure vessel by the action of a valve controlled by a differential pressure detector 13. The differential pressure is controlled.

(作用・効果) (1) 燃料のガス化反応時における吸熱特性を主とし
て利用して炉出口ガス温度を適正値(灰の軟化点以下)
に制御することができるので高いガス化効率が得られ
る。
(Operations and effects) (1) The furnace exit gas temperature is set to an appropriate value (below the ash softening point) by mainly utilizing the endothermic characteristics during the gasification reaction of fuel.
Since it can be controlled to, high gasification efficiency can be obtained.

即ち、水クエンチあるいはラデアントクーラ方式によ
る熱の損失がなくなるという利点を有する。
That is, there is an advantage that heat loss due to the water quench or the radiant cooler system is eliminated.

(2) 上記(1)の効果と、水冷壁で裏打ちされた薄
い耐火・断熱材の効果(耐火・断熱材の炉内面温度が高
温となつても耐火・断熱材は比較的薄いので裏側の水冷
壁に放熱し易く炉内温度を耐火・断熱材を損傷させるこ
となく高くすることができる)によりコンバスタ内温度
を十分高く(1400〜1800℃)できる。従つて灰の溶融温
度の高い石炭の使用も可能となり、炭種適合性に優れて
いる。
(2) The effect of (1) above and the effect of a thin fireproof / insulating material lined with a water cooling wall (fireproof / insulating material is relatively thin even if the furnace inner surface temperature is high, so The temperature inside the combustor can be made sufficiently high (1400 to 1800 ° C) by easily radiating heat to the water cooling wall and raising the temperature inside the furnace without damaging the fireproof and heat insulating materials. Therefore, it becomes possible to use coal with a high melting temperature of ash, and the coal type compatibility is excellent.

(3) デイフユーザを設けることにより、高温ガスと
燃料の均一混合、ガス流れの安定化をはかることがで
き、高いガス化効率を得ることができる。
(3) By providing the diff user, the high temperature gas and the fuel can be uniformly mixed and the gas flow can be stabilized, and high gasification efficiency can be obtained.

(4) 厚い寸法の耐熱材、断熱材の排除により、起動
特性の改善がはかられる。
(4) By removing thick heat-resistant materials and heat insulating materials, the starting characteristics can be improved.

(5) ガス化炉と圧力容器との間に加圧不活性ガスを
注入することにより、水冷壁を、ガス化炉の内圧による
変形から守り、高い信頼性を維持することができる。
(5) By injecting the pressurized inert gas between the gasification furnace and the pressure vessel, the water cooling wall can be protected from deformation due to the internal pressure of the gasification furnace, and high reliability can be maintained.

【図面の簡単な説明】[Brief description of drawings]

第1図は本発明の石炭ガス化装置の一実施態様の構造を
示す図、第2図は本発明の石炭ガス化装置の作用・効果
の理解を助ける本発明のガス化原理図、第3図は従来の
石炭ガス化炉を説明するための図である。
FIG. 1 is a diagram showing the structure of an embodiment of a coal gasifier of the present invention, and FIG. 2 is a gasification principle diagram of the present invention, which helps to understand the operation and effects of the coal gasifier of the present invention, and FIG. The figure is a figure for demonstrating the conventional coal gasification furnace.

───────────────────────────────────────────────────── フロントページの続き (72)発明者 柏崎 正道 東京都千代田区丸の内2丁目5番1号 三 菱重工業株式会社内 (72)発明者 小川 紀一郎 東京都千代田区丸の内2丁目5番1号 三 菱重工業株式会社内 (72)発明者 太田 一広 東京都千代田区丸の内2丁目5番1号 三 菱重工業株式会社内 (56)参考文献 特開 昭56−47489(JP,A) 特開 昭54−32508(JP,A) 特開 昭61−145294(JP,A) 米国特許3018174(US,A) ─────────────────────────────────────────────────── ─── Continuation of the front page (72) Masamichi Kashiwazaki 2-5-1, Marunouchi, Chiyoda-ku, Tokyo Sanryo Heavy Industries Co., Ltd. (72) Inventor Kiichiro Ogawa 2-5-1, Marunouchi, Chiyoda-ku, Tokyo Hishi Heavy Industries Ltd. (72) Inventor Kazuhiro Ota 2-5-1, Marunouchi, Chiyoda-ku, Tokyo Sanyo Heavy Industries Ltd. (56) Reference JP-A-56-47489 (JP, A) JP-A-54 -32508 (JP, A) JP-A-61-145294 (JP, A) US Patent 3018174 (US, A)

Claims (2)

【特許請求の範囲】[Claims] 【請求項1】燃焼を燃焼させて高温の雰囲気を形成する
コンバスタ部、同コンバスタ部の上部に位置してコンバ
スタ部と連通し、燃料を乾留・熱分解させるとともに前
記コンバスタ部からの高温のガスと燃料とを混合するデ
ィフューザ部、及び同ディフューザ部の上部に位置して
ディフューザ部と連通し、吸熱のガス化反応をおこなわ
せて前記ディフューザ部からの炭素粒をガス化させるレ
ダクタ部からなるガス化炉を有し、同ガス化炉を圧力容
器内に収納し、前記ガス化炉と前記圧力容器との間に炉
内圧力と圧力容器内圧力との差圧により制御される弁の
操作により加圧不活性ガスを注入してガス化炉内圧によ
るガス化炉周壁の変形を防ぐようにしたことを特徴とす
る石炭ガス化装置。
Claim: What is claimed is: 1. A combustor section for combusting combustion to form a high temperature atmosphere, and a combustor section located at an upper portion of the combustor section and communicating with the combustor section for carbonizing and pyrolyzing fuel and for producing a high temperature gas from the combustor section. A gas consisting of a diffuser part for mixing the fuel and the fuel, and a reducer part which is located above the diffuser part and communicates with the diffuser part to cause an endothermic gasification reaction to gasify carbon particles from the diffuser part. By having a gasification furnace, the same gasification furnace is housed in a pressure vessel, and by operating a valve controlled by a pressure difference between the pressure in the furnace and the pressure in the pressure vessel between the gasification furnace and the pressure vessel. A coal gasification apparatus, characterized in that a pressurized inert gas is injected to prevent deformation of the peripheral wall of the gasification furnace due to internal pressure of the gasification furnace.
【請求項2】燃焼を燃焼させて高温の雰囲気を形成する
コンバスタ部、同コンバスタ部の上部に位置してコンバ
スタ部と連通し、燃料を乾留・熱分解させるとともに前
記コンバスタ部からの高温のガスと燃料とを混合するデ
ィフューザ部、及び同ディフューザ部の上部に位置して
ディフューザ部と連通し、吸熱のガス化反応をおこなわ
せて前記ディフューザ部からの炭素粒をガス化させるレ
ダクタ部からなり、周壁が水冷壁と同水冷壁の内部側に
全域にわたりライニングされた薄い耐熱・耐火材で形成
されたガス化炉を有し、同ガス化炉を圧力容器内に収納
し、前記ガス化炉と前記圧力容器との間に炉内圧力と圧
力容器内圧力との差圧により制御される弁の操作により
加圧不活性ガスを注入してガス化炉内圧によるガス化炉
周壁の変形を防ぐようにしたことを特徴とする石炭ガス
化装置。
2. A combustor section for combusting combustion to form a high temperature atmosphere, and a combustor section located above the combustor section and communicating with the combustor section for carbonization and thermal decomposition of fuel and high temperature gas from the combustor section. And a diffuser part for mixing fuel with each other, and a diffuser part located at the upper part of the diffuser part, in communication with the diffuser part, and a reductor part for gasifying carbon particles from the diffuser part by causing a gasification reaction of endotherm, The surrounding wall has a gasification furnace made of thin heat-resistant / refractory material lined on the inner side of the water-cooling wall and the water-cooling wall, the gasification furnace is housed in a pressure vessel, and the gasification furnace is The pressurized inert gas is injected between the pressure vessel and the pressure vessel by controlling the pressure difference between the pressure inside the furnace and the pressure inside the pressure vessel to prevent deformation of the peripheral wall of the gasification furnace due to the pressure inside the gasification furnace. Coal gasifier, characterized in that there was Unishi.
JP60048202A 1985-03-13 1985-03-13 Coal gasifier Expired - Fee Related JPH0823028B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP60048202A JPH0823028B2 (en) 1985-03-13 1985-03-13 Coal gasifier

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP60048202A JPH0823028B2 (en) 1985-03-13 1985-03-13 Coal gasifier

Publications (2)

Publication Number Publication Date
JPS61207492A JPS61207492A (en) 1986-09-13
JPH0823028B2 true JPH0823028B2 (en) 1996-03-06

Family

ID=12796793

Family Applications (1)

Application Number Title Priority Date Filing Date
JP60048202A Expired - Fee Related JPH0823028B2 (en) 1985-03-13 1985-03-13 Coal gasifier

Country Status (1)

Country Link
JP (1) JPH0823028B2 (en)

Families Citing this family (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH02100026U (en) * 1989-01-20 1990-08-09
KR960700328A (en) * 1992-12-30 1996-01-19 아더 이. 푸니어 2세 High performance coal gasifier system
CN1221446A (en) * 1996-05-20 1999-06-30 株式会社日立制作所 Coal gasification apparatus, coal gasification method and integrated coal gasification combined power generating system
EP1814966B1 (en) * 2004-11-22 2019-04-10 Air Products and Chemicals, Inc. Apparatus for gasifying a fuel
CN114890421A (en) * 2022-03-21 2022-08-12 新疆鑫力环保科技有限公司 Multistage reducing fluidized bed activation furnace and system for preparing activated carbon

Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3018174A (en) 1958-07-21 1962-01-23 Babcock & Wilcox Co High pressure pulverized coal gasifier

Family Cites Families (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4168956A (en) * 1977-08-18 1979-09-25 Combustion Engineering, Inc. Method of operating a coal gasifier
JPS5844717B2 (en) * 1979-09-28 1983-10-05 ブレンシユトフインステイトウ−ト フライベルク Reactor for gas production by partial oxidation
US4610697A (en) * 1984-12-19 1986-09-09 Combustion Engineering, Inc. Coal gasification system with product gas recycle to pressure containment chamber

Patent Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3018174A (en) 1958-07-21 1962-01-23 Babcock & Wilcox Co High pressure pulverized coal gasifier

Also Published As

Publication number Publication date
JPS61207492A (en) 1986-09-13

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