JPS6042850B2 - High pressure gas heating device - Google Patents

High pressure gas heating device

Info

Publication number
JPS6042850B2
JPS6042850B2 JP51152052A JP15205276A JPS6042850B2 JP S6042850 B2 JPS6042850 B2 JP S6042850B2 JP 51152052 A JP51152052 A JP 51152052A JP 15205276 A JP15205276 A JP 15205276A JP S6042850 B2 JPS6042850 B2 JP S6042850B2
Authority
JP
Japan
Prior art keywords
heat insulating
heating
gas
pressure
chamber
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
Application number
JP51152052A
Other languages
Japanese (ja)
Other versions
JPS5376451A (en
Inventor
清 永井
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.)
Taiyo Sanso Co Ltd
Original Assignee
Taiyo Sanso Co 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 Taiyo Sanso Co Ltd filed Critical Taiyo Sanso Co Ltd
Priority to JP51152052A priority Critical patent/JPS6042850B2/en
Publication of JPS5376451A publication Critical patent/JPS5376451A/en
Publication of JPS6042850B2 publication Critical patent/JPS6042850B2/en
Expired legal-status Critical Current

Links

Classifications

    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E30/00Energy generation of nuclear origin
    • Y02E30/30Nuclear fission reactors

Landscapes

  • Direct Air Heating By Heater Or Combustion Gas (AREA)
  • Physical Or Chemical Processes And Apparatus (AREA)
  • Furnace Details (AREA)

Description

【発明の詳細な説明】 本発明は、高圧ガスを温度850℃以上に加熱する装
置に関する。
DETAILED DESCRIPTION OF THE INVENTION The present invention relates to an apparatus for heating high pressure gas to a temperature of 850° C. or higher.

詳しくは、本装置外で加圧したガスを本装置内で850
℃以上に加熱して所望の高温高圧ガスをつくり出す装置
に関する。 現在我が国には現存しないが、アメリカで
はすでに開発研究が進められている未来型原子炉「高圧
ガス炉」が、いずれ我が国にも導入されることが予想さ
れる。
In detail, the gas pressurized outside this device is
This invention relates to a device that generates a desired high-temperature, high-pressure gas by heating it to a temperature above ℃. The futuristic nuclear reactor ``high-pressure gas reactor,'' which does not currently exist in Japan, but whose development and research is already underway in the United States, is expected to be introduced to Japan someday.

この高圧ガス炉において冷却剤として使用されるヘリウ
ムガスは、温度100O°C)50に9/cltGにま
で加熱加圧されると想定されるので、かかる高温高圧の
ヘリウムガスを実験的につくりだして、その物性挙動な
どを研究する必要に迫られている。しカルながら、従来
の電気炉などの装置では、かかる高温高圧のガスをつく
ることができなかつた。即ち従来の耐圧容器に50に9
/aiGの高圧のガスを温度850℃以上の高温で充填
収納することは、容器の材質からして不可能であつた。
本発明は所定の圧力に耐える耐圧胴に胴外で所望の圧
まで加圧された高圧ガスを注入して、胴内で所望の高温
にまで加熱する場合、加熱が耐圧胴壁に伝導せぬよう断
熱することによつて、高温高圧ガスを得ることを可能に
したものである。
The helium gas used as a coolant in this high-pressure gas furnace is assumed to be heated and pressurized to a temperature of 100°C) 9/cltG, so we experimentally created helium gas at such high temperature and pressure. There is an urgent need to study its physical properties and behavior. However, it was not possible to produce such high-temperature, high-pressure gas using conventional equipment such as electric furnaces. In other words, 50 to 9
Due to the material of the container, it was impossible to fill and store the high pressure gas of /aiG at a temperature of 850° C. or higher.
In the present invention, when high-pressure gas pressurized to a desired pressure outside the shell is injected into a pressure shell that can withstand a predetermined pressure and heated to a desired high temperature inside the shell, the heating is not conducted to the pressure shell wall. This insulation made it possible to obtain high-temperature, high-pressure gas.

即ち本発明は、外周に冷却ジャケットを有する耐圧胴
の内部が、増圧可能な断熱盤によつて加熱部室と加熱部
室とに区画され、加熱部室には、上部の空間を横切つて
固設された支え板に複数本の発熱体が前記断熱盤と支え
板とを貫いて懸架固設され、また耐圧胴内壁を覆つて第
一の断熱層が固着されるとともに、該断熱層と上記発熱
体群との間に第二の断熱層が、断熱層との間に胴外より
気体注入口から注入された気体が通る流通空間および断
熱盤との間の流通空間を径て発熱体群により加熱される
加熱室を形成して固設され、加熱室には加熱された気体
が胴外へ取出される気体排出口が設けられており、冷却
部室には、胴外から挿入された電極が発熱体群に対して
その端部と結線され、かつ、胴外よりの冷却媒により冷
却部室を冷却する冷却器が配設されていることを特徴と
する高圧ガス加熱装置であつて、注入された気体の圧力
と関係なく温度を高めることを可能にしたものである。
以下本発明を図にしたがつて詳細説明する。
That is, in the present invention, the inside of a pressure cylinder having a cooling jacket on the outer periphery is divided into a heating part chamber and a heating part chamber by a heat insulating board capable of increasing the pressure, and the heating part chamber has a heating part fixedly installed across the upper space. A plurality of heat generating elements are suspended and fixed to the supporting plate, passing through the heat insulating board and the supporting plate, and a first heat insulating layer is fixed to cover the inner wall of the pressure cylinder, and the heat insulating layer and the heat generating element are A second heat insulating layer is provided between the heat insulating layer and the heat insulating layer through a circulation space through which gas injected from the gas inlet from outside the body passes, and a flow space between the heat insulating panel and the heat generating body group. The heating chamber is fixedly installed to form a heating chamber, and the heating chamber is provided with a gas discharge port through which the heated gas is taken out of the shell, and the cooling chamber has an electrode inserted from outside the shell. A high-pressure gas heating device characterized by having a cooler connected to the end of the heating element group and cooling the cooling section chamber with a cooling medium from outside the body. This makes it possible to increase the temperature regardless of the pressure of the gas.
The present invention will be explained in detail below with reference to the drawings.

第1図は本発明の装置の縦断面図を示し、第2図は第1
図のA−A断面図である。耐圧胴3は、一方の端が蓋1
6で封せられて、他方には気体の注入口17と排出口1
8とが開孔されており、外周にジャケット1が装着され
て冷却水室2が形成されている。胴体内部は、複数個の
均圧孔19の1、19の2・・・・・・19のnの設け
られた仕切板19とそれに載置固定された断熱盤4によ
つて、横に仕切られて加熱部室5と冷却部室6とに区画
されている。加熱部室5には、上部の空間を横に仕切つ
て固設された支え板7に、複数本の発熱体8(8の1,
8の2・・・・・・8の18)が、前記断熱盤4と支え
板7とを貫いて懸架されている。
FIG. 1 shows a longitudinal cross-sectional view of the device of the invention, and FIG.
It is an AA sectional view of the figure. One end of the pressure cylinder 3 is connected to the lid 1.
6, and the other side has a gas inlet 17 and an outlet 1.
8 is opened, and a jacket 1 is attached to the outer periphery to form a cooling water chamber 2. The inside of the fuselage is horizontally partitioned by a partition plate 19 provided with a plurality of pressure equalizing holes 19 1, 19 2, . It is divided into a heating section chamber 5 and a cooling section chamber 6. In the heating section chamber 5, a plurality of heating elements 8 (1 of 8,
8-2...8-18) are suspended through the heat insulation board 4 and the support plate 7.

耐圧胴3の内壁に、第一の断熱層9が内壁面を覆つて固
着されており、発熱体8と第一の断熱層9との間に第二
の断熱層10が介在固設されている。第一の断熱層9と
第二の断熱層10との間に気体の流通する空間11、第
二の断熱層10と断熱盤4との間に流通空間12、発熱
体8と第二の断熱層10との間に加熱室13が形成され
ている。断熱盤4、断熱層9および断熱層10には、い
ずれもセラミックス系の断熱剤を用いるが、セラミック
ス系の断熱材としては、具体的にはセラミック・ファイ
バーと呼ばれるシリカ・アルミナ系の断熱材、例えば「
KAOWOOL」(商品名、日本アスベスト株式会社製
品)やジルコニアファイバーと呼ばれるジルコニア99
%以上の断熱材、例.えば[ZIRCAR」(商品名、
ZIRC,ARPRODUCTInc.製品)その他市
販の繊維状あるいは綿状のセラミックス系断熱剤を適宜
選定して使用すればよい。
A first heat insulating layer 9 is fixed to the inner wall of the pressure cylinder 3 so as to cover the inner wall surface, and a second heat insulating layer 10 is interposed and fixed between the heating element 8 and the first heat insulating layer 9. There is. A space 11 where gas flows between the first heat insulating layer 9 and the second heat insulating layer 10, a flow space 12 between the second heat insulating layer 10 and the heat insulating board 4, a space between the heating element 8 and the second heat insulating layer. A heating chamber 13 is formed between the layer 10. The heat insulating board 4, the heat insulating layer 9, and the heat insulating layer 10 all use ceramic-based heat insulating materials. Specifically, the ceramic-based heat insulating materials include silica-alumina-based heat insulating materials called ceramic fibers, for example"
Zirconia 99, also known as ``KAOWOOL'' (product name, Nippon Asbestos Co., Ltd. product) and zirconia fiber.
% or more of insulation material, e.g. For example, [ZIRCAR] (product name,
ZIRC, ARPRODUCTI Inc. Product) Other commercially available fibrous or cotton-like ceramic heat insulating agents may be appropriately selected and used.

断熱盤4は、加熱室の頂部を仕切る天井を形成.するの
で、上記セラミックス系断熱材の繊維状あるいは綿状の
ものを適宜、束ねたり、編組してシート状にしたものを
積層するか、綿状のものを適宜成型して、周囲を金網あ
るいは金属性有孔板で被覆するかして、気体は内部を自
由に流通し得るが、熱輻射はこれを遮断し得て、断熱盤
4自体が型崩れしない様に構成したものであり、支え板
7上に載せて使用する。
The insulation board 4 forms a ceiling that partitions the top of the heating chamber. Therefore, the fibrous or cotton-like ceramic insulation materials mentioned above can be bundled or braided to form sheets and then laminated, or the cotton-like materials can be formed as appropriate, and the surrounding area can be covered with wire mesh or metal. By covering it with a perforated plate, gas can freely flow inside, but heat radiation can be blocked, and the insulation board 4 itself is constructed so that it does not lose its shape. 7 to use.

断熱盤4は、上述の如く、気体は内部を自由に流通し得
るようにして、加熱部室5と冷却部室6との間に圧力差
を生じない様均圧可能な構造のものとするが、この均圧
可能な構造としては、綿状断熱材を編組したシートに孔
を開けることもできるが、断熱材繊維の束を格子・状、
放射状、不規則状に適宜重ねて形を整える等、適宜気体
の流通可能な積層シートの形にすればよい。断熱盤4の
下には、断熱盤を支持するために仕切板19を置くこと
ができる。仕切板19は加熱部室5と冷却部室6との間
の均圧のための気体の流通が可能であれば任意の構造が
とり得る。図においては複数の均圧孔19の1を適宜設
けた仕切板19が示されているが、格子板、ハネカム板
、あるいは同心円、または渦巻杖の桁と放射状の桁とを
組合わせたくもの巣状板などでもよい。但し、仕切板1
9および断熱盤4を重ねた層を上下に直接通じた孔があ
るのは輻射熱の点で好ましくなく、気体が隙間を通つて
屈曲して通する様にする注意も必要である。一方、第一
の断熱層9を耐圧胴3の内壁に、また第二の断熱層10
を発熱体8と第一の断熱層9との間に介在固設させるの
も断熱の目的であり、これ等の断熱層は断熱盤9と形を
異にするのみで、断熱材の綿状のものを編組したシート
状のものを用いたり、綿状のものを適宜成型して金網で
覆う等の構造は断熱盤と共通している。
As mentioned above, the heat insulating board 4 has a structure that allows gas to freely flow inside and equalizes the pressure so that no pressure difference occurs between the heating section chamber 5 and the cooling section chamber 6. This pressure-equalizing structure can be created by making holes in a braided sheet of cotton-like insulation, but it is also possible to make holes in a sheet made of braided cotton-like insulation.
They may be formed into a laminated sheet that allows gas to flow as appropriate, such as by stacking them in a radial or irregular manner. A partition plate 19 can be placed under the heat insulation board 4 to support the heat insulation board. The partition plate 19 may have any structure as long as it allows gas to flow between the heating section chamber 5 and the cooling section chamber 6 to equalize the pressure. In the figure, a partition plate 19 in which a plurality of pressure equalizing holes 19 are appropriately provided is shown, but a spider web consisting of a lattice plate, a honeycomb plate, a concentric circle, or a combination of spiral cane girders and radial girders is shown. It may also be a shaped plate. However, partition plate 1
It is not preferable to have a hole that directly connects the upper and lower layers of the layer 9 and the heat insulating board 4 from the viewpoint of radiant heat, and care must be taken to allow the gas to pass through the gap by bending. On the other hand, a first heat insulating layer 9 is placed on the inner wall of the pressure cylinder 3, and a second heat insulating layer 10 is placed on the inner wall of the pressure cylinder 3.
The purpose of heat insulation is to interpose and fix the heat generating element 8 and the first heat insulating layer 9 between the heating element 8 and the first heat insulating layer 9. The structure is similar to that of a heat-insulating board, such as using a sheet-like material made of braided materials, or molding a cotton-like material as appropriate and covering it with a wire mesh.

断熱層の取付けにはアンカーを利用する等、壁から離れ
ない様適宜固定する必要がある。なお、断熱盤や断熱層
の材料には、同一種のセラミックス系断熱材を用いても
よく、必要に応じ異種のセラミックス系断熱材を適宜組
合わせて用いても差支えない。
When installing the heat insulating layer, it is necessary to use anchors to secure it appropriately so that it does not separate from the wall. Note that the same type of ceramic heat insulating material may be used as the material for the heat insulating board and the heat insulating layer, or different types of ceramic heat insulating materials may be appropriately combined as necessary.

冷却部室6には、胴外から挿入された電極14が断熱盤
4から突出した発熱体8の先端と結線されており、また
冷却水の循環するコイル状の冷却器15が懸架固設され
ている。
In the cooling section chamber 6, an electrode 14 inserted from outside the body is connected to the tip of a heating element 8 protruding from the heat insulation board 4, and a coil-shaped cooler 15 through which cooling water is circulated is suspended and fixed. There is.

本発明の装置を用いるには、電極14を通じて発熱体に
通電した発熱体によつて加熱室13を所定温度に加熱す
るが、その間耐圧胴体外て所要の圧に加圧された目的の
気体を、気体注入口17より胴内に注入する。
To use the device of the present invention, the heating chamber 13 is heated to a predetermined temperature by the heating element that is energized through the electrode 14, and during this time the target gas pressurized to the required pressure is pumped out of the pressure-resistant body. , is injected into the shell from the gas inlet 17.

注入された気体は、流通空間11、12を通つて、発熱
体8群を有する加熱室13に流入する。加熱室13は発
熱体8によつて加熱されているので、気体は所定温度に
加熱されて気体排出口18から排出される。排出された
気体は、所望の圧と温度の気体として得られる。その行
程において、加圧された気体は、均圧孔19の1,19
の2・・・・・・19のnおよび断熱盤4を通り冷却部
室6へも浸透するので、加熱部室5と冷却部室6との圧
は等しくなり、耐圧胴3全体に加わる圧力は同一であつ
て、所定の耐圧が可能となる。また、発熱体8によつて
加熱室13は所定温度にまで加熱されるが、第二の断熱
層10と第一の断熱層9とによつて、耐圧胴加熱部室5
の壁への熱伝導は遮断され、更に両断熱層の間の流通空
間を流れる低温の注入ガスによつて除熱され、かつ、冷
却水室2を流れる冷却水によつて耐圧胴3の壁は外部か
らも冷却されるので、耐圧胴3の壁は過熱によつて損傷
することがない。また、冷却部室6は、断熱盤4によつ
て発熱体8からの熱伝導は遮断され、かつ、冷却器15
による冷却もあつて、冷却部室6は低温度に保たれる。
即ち本発明の装置を用いれば、発熱体8によつて胴体に
損傷を生ずることなく、加熱室13が高温に加熱され、
注入される高圧の気体を連続して所望の高温に加熱する
ことができる。実施例 第1図に示す装置において、各部の仕様は次のとおりで
あり、この装置を用いてヘリウムガスの加熱を行つた。
The injected gas passes through the circulation spaces 11 and 12 and flows into a heating chamber 13 having eight groups of heating elements. Since the heating chamber 13 is heated by the heating element 8, the gas is heated to a predetermined temperature and discharged from the gas outlet 18. The discharged gas is obtained as a gas at the desired pressure and temperature. During that process, the pressurized gas flows through the pressure equalizing holes 19 and 19.
2...Since it also penetrates into the cooling section chamber 6 through the n of 19 and the insulation board 4, the pressures in the heating section chamber 5 and the cooling section chamber 6 become equal, and the pressure applied to the entire pressure shell 3 is the same. Therefore, a predetermined withstand voltage is possible. Further, although the heating chamber 13 is heated to a predetermined temperature by the heating element 8, the second heat insulating layer 10 and the first heat insulating layer 9
Heat conduction to the wall is blocked, and the heat is removed by the low-temperature injection gas flowing through the circulation space between the two heat insulating layers, and the cooling water flowing through the cooling water chamber 2 is transferred to the wall of the pressure shell 3. is also cooled from the outside, so that the walls of the pressure cylinder 3 are not damaged by overheating. In addition, the cooling section chamber 6 is configured such that heat conduction from the heating element 8 is blocked by the heat insulating board 4, and the cooler 15
The temperature of the cooling section chamber 6 is maintained at a low temperature.
That is, by using the device of the present invention, the heating chamber 13 is heated to a high temperature without causing damage to the fuselage by the heating element 8.
The injected high pressure gas can be continuously heated to the desired high temperature. EXAMPLE The specifications of each part of the apparatus shown in FIG. 1 are as follows, and helium gas was heated using this apparatus.

耐圧胴3材質・・・・・・SUS3O4号のステンレス
肉厚・・・・・・227m内径・・・・・・550Im 高さ・・・・・・3.6rr1, ジャケット1 材質●●・・・・SUS3O4号のステンレス肉厚・・
・・・・5Tf0n内径・・・・・・67CM 冷却水室2 巾・・・・・・・・・38wm 発熱体8 カンタルA1ヒーター1&本 長さ・・・・・・1.5rrL, 第一の断熱層9 KA0●WOOL断熱材 肉厚・・・・・・5077!77! 第二の断熱層10 KA0−WOOL断熱材 肉厚・・・・・・9『 流通空間11 巾・・・・・・・・・10Wrfn 加熱室13 径・・・・・・・・・2507m 断熱盤4 KA0●WOOL断熱材 肉厚・・・・・・15Cynn 圧力50kg/CliGl温度550℃のヘリウムガス
を200Nd/hの流量で気体注入口17より供給し、
電極14を通じて発熱体8に38kWの電力を通電して
加熱室内を8時間かけて1000℃まで除々に昇温した
Pressure cylinder 3 material: SUS3O4 stainless steel Wall thickness: 227m Inner diameter: 550Im Height: 3.6rr1 Jacket 1 Material: ●●...・・SUS3O4 stainless steel wall thickness・・
...5Tf0n Inner diameter...67CM Cooling water chamber 2 Width...38wm Heating element 8 Kanthal A1 heater 1 & main length...1.5rrL, 1st Insulation layer 9 KA0●WOOL insulation material thickness...5077!77! Second heat insulating layer 10 KA0-WOOL Insulating material thickness...9' Distribution space 11 Width...10Wrfn Heating chamber 13 Diameter...2507 m Insulation Panel 4 KA0●WOOL insulation material thickness...15Cynn Helium gas with a pressure of 50 kg/CliGl temperature of 550°C is supplied from the gas inlet 17 at a flow rate of 200 Nd/h,
A power of 38 kW was applied to the heating element 8 through the electrode 14, and the temperature inside the heating chamber was gradually raised to 1000° C. over 8 hours.

運転開始後8時間で気体排出口18から圧力50kg/
CFllGl温度1000℃のヘリウムガスが連続排出
された。
8 hours after the start of operation, the pressure from the gas outlet 18 is 50 kg/
Helium gas with a CFllGl temperature of 1000°C was continuously discharged.

【図面の簡単な説明】[Brief explanation of the drawing]

第1図は本発明の装置の構造を示す縦断面図であり、発
熱体を明示するため発熱体は二本に簡略化してある。 第2図は第1図におけるA−A断面図である。図示され
た要部と符号との対応は次のとおりである。 1・・・・・・冷却ジャケット、2・・・・・・冷却水
室、3・・・・・・耐圧胴、4・・・・・・断熱盤、5
・・・・・・加熱部室、6・・・・・・冷却部室、7・
・・・・・支え板、8・・・・・・発熱体、9・・・・
・・第一の断熱層、10・・・・・・第二の断熱層、1
1、12・・・・・流通空間、13・・・・・・加熱室
、14・・・・・電極、15・・・・・冷却器、16・
・・・・・蓋、17・・気体注入口、18・・・・・・
気体排出口、19・・・・・・仕切板。
FIG. 1 is a longitudinal sectional view showing the structure of the device of the present invention, and the heating elements are simplified to two in order to clearly show them. FIG. 2 is a sectional view taken along the line AA in FIG. 1. The correspondence between the main parts illustrated and the symbols is as follows. 1... Cooling jacket, 2... Cooling water chamber, 3... Pressure resistant shell, 4... Heat insulation board, 5
... Heating section chamber, 6... Cooling section chamber, 7.
... Support plate, 8 ... Heating element, 9 ...
...First heat insulation layer, 10...Second heat insulation layer, 1
1, 12... Distribution space, 13... Heating chamber, 14... Electrode, 15... Cooler, 16...
...Lid, 17...Gas inlet, 18...
Gas outlet, 19... Partition plate.

Claims (1)

【特許請求の範囲】[Claims] 1 外周に冷却ジャケット1を有する耐圧胴3の内部が
、均圧可能な断熱盤4によつて加熱部室5と冷却部室6
とに区画され、加熱部室5には、上部の空間を横切つて
固設された支え板7に複数本の発熱体8が前記断熱盤4
と支え板7とを貫いて懸架固設され、また耐圧胴内壁を
覆つて第一の断熱層9が固着されるとともに、該断熱層
9と上記発熱体群との間に第二の断熱層10が、断熱層
9との間に胴外より気体注入口17から注入された気体
が通る流通空間11および断熱盤4との間の流通空間1
2を径て発熱体群により加熱される加熱室13を形成し
て固設され、加熱室13には加熱された気体が胴外へ取
出される気体排出口18が設けられており、冷却部室6
には、胴外から挿入された電極14が発熱体群に対して
その端部と結線され、かつ、胴外よりの冷却媒により冷
却部室6内を冷却する冷却器15が配設されていること
を特徴とする高圧ガス加熱装置。
1 The inside of the pressure shell 3 having the cooling jacket 1 on the outer periphery is divided into a heating section chamber 5 and a cooling section chamber 6 by a heat insulating board 4 that can equalize the pressure.
In the heating section chamber 5, a plurality of heating elements 8 are mounted on a support plate 7 fixedly installed across the upper space.
A first heat insulating layer 9 is fixedly suspended through the support plate 7 and covers the inner wall of the pressure cylinder, and a second heat insulating layer is provided between the heat insulating layer 9 and the heating element group. 10 is a circulation space 11 through which gas injected from outside the shell passes through the gas inlet 17 between the heat insulating layer 9 and a circulation space 1 between the heat insulating panel 4;
2 to form a heating chamber 13 which is heated by a group of heating elements, and the heating chamber 13 is provided with a gas discharge port 18 through which heated gas is taken out to the outside of the body. 6
An electrode 14 inserted from outside the shell is connected to the end of the heating element group, and a cooler 15 is disposed for cooling the inside of the cooling section chamber 6 with a cooling medium from outside the shell. A high-pressure gas heating device characterized by:
JP51152052A 1976-12-20 1976-12-20 High pressure gas heating device Expired JPS6042850B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP51152052A JPS6042850B2 (en) 1976-12-20 1976-12-20 High pressure gas heating device

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP51152052A JPS6042850B2 (en) 1976-12-20 1976-12-20 High pressure gas heating device

Publications (2)

Publication Number Publication Date
JPS5376451A JPS5376451A (en) 1978-07-06
JPS6042850B2 true JPS6042850B2 (en) 1985-09-25

Family

ID=15531986

Family Applications (1)

Application Number Title Priority Date Filing Date
JP51152052A Expired JPS6042850B2 (en) 1976-12-20 1976-12-20 High pressure gas heating device

Country Status (1)

Country Link
JP (1) JPS6042850B2 (en)

Families Citing this family (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4527822B2 (en) * 1999-10-01 2010-08-18 新コスモス電機株式会社 Thermal reactor
DE102018109643A1 (en) * 2018-04-23 2019-10-24 Eisenmann Se Apparatus and method for heating gas for a high temperature furnace

Also Published As

Publication number Publication date
JPS5376451A (en) 1978-07-06

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