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JPS609095B2 - soft magnetic material - Google Patents
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JPS609095B2 - soft magnetic material - Google Patents

soft magnetic material

Info

Publication number
JPS609095B2
JPS609095B2 JP52062212A JP6221277A JPS609095B2 JP S609095 B2 JPS609095 B2 JP S609095B2 JP 52062212 A JP52062212 A JP 52062212A JP 6221277 A JP6221277 A JP 6221277A JP S609095 B2 JPS609095 B2 JP S609095B2
Authority
JP
Japan
Prior art keywords
magnetic
magnetic material
soft magnetic
permalloy
copper
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
JP52062212A
Other languages
Japanese (ja)
Other versions
JPS53147617A (en
Inventor
建一郎 百瀬
浄 熊谷
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.)
Toshiba Corp
Original Assignee
Tokyo Shibaura Electric 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 Tokyo Shibaura Electric Co Ltd filed Critical Tokyo Shibaura Electric Co Ltd
Priority to JP52062212A priority Critical patent/JPS609095B2/en
Publication of JPS53147617A publication Critical patent/JPS53147617A/en
Publication of JPS609095B2 publication Critical patent/JPS609095B2/en
Expired legal-status Critical Current

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  • Soft Magnetic Materials (AREA)

Description

【発明の詳細な説明】 本発明は軟質磁性材料に係り、特にNi量において磁束
密度と透磁率を改善した軟質磁性材料に関する。
DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a soft magnetic material, and particularly to a soft magnetic material with improved magnetic flux density and magnetic permeability depending on the amount of Ni.

Ni−Fe系のパーマロィは透磁率が高く軟質磁性材料
としてよく知られている。
Ni--Fe based permalloy has high magnetic permeability and is well known as a soft magnetic material.

なかでもMo,Cr,Cu等を含む高Niパーマロィ(
JIS−PC級)および4州jパーマロィ(JIS‐P
B級)が実用上多く用いられている。このうち4針j−
パーマロィは、高Niパーマロィよりも透磁率は若干劣
るが、値段が安いために工業上磁気しやへし、材、ヨー
ク材等として広く使用されている。4印i−Feパーマ
ロィは、このように実用上好ましい欧質磁性材料である
が、工業的には、更に価格の安いかつ磁気特性の好まし
い軟質磁性材料を求める要望が強い。
Among them, high Ni permalloy containing Mo, Cr, Cu, etc.
JIS-PC grade) and four states J Permalloy (JIS-P
Class B) is often used in practice. Of these, 4 stitches j-
Permalloy has slightly lower magnetic permeability than high-Ni permalloy, but because of its low price, it is widely used industrially as magnetic shields, materials, yoke materials, etc. Although 4-mark i-Fe permalloy is thus a practically preferable magnetic material, there is a strong demand from an industrial perspective for a soft magnetic material that is cheaper and has more favorable magnetic properties.

本発明は上記の要望に対してなされたもので4州i−F
eパーマロィの特性を損なわないで高価なニッケル(N
i)の含有量を低減した新規な質磁性材料を提供する。
The present invention has been made in response to the above-mentioned needs, and is
Expensive nickel (N) without impairing the properties of e-permalloy.
A novel highly magnetic material with a reduced content of i) is provided.

さてNi−Fe系のパーマロィにおいてNi量が30%
付近では磁気特性、例えば磁束密度と透磁率が極めて劣
化することはよく知られている。したがってNi量が3
0%付近のものは、そのキュリー点の低さを利用しても
つばら整滋材として用いられていて、高透磁率材料とし
て用いられることは実用上ほとんどなかった。発明者等
は、低Nj−Feパーマロィを軟質磁性材料として道用
すべ〈研究を重ねた結果、Ni量が約40%以下のNi
−Feパーマロィにおいては銅(Cu)の添加によりN
i量が40%より多い場合と異なり10正における磁束
密度(Bo)および初透磁率(仏i)が向上するととも
にこの特性を更に助長するにはシリコン(Sj)を併せ
て添加すればよいという注目すべき事実を見出した。
Now, in Ni-Fe based permalloy, the amount of Ni is 30%.
It is well known that magnetic properties, such as magnetic flux density and magnetic permeability, deteriorate significantly in the vicinity. Therefore, the amount of Ni is 3
Materials with a concentration of around 0% are used as thorn-conditioning materials by taking advantage of their low Curie points, and are practically never used as high magnetic permeability materials. The inventors have determined that low Nj-Fe permalloy can be used as a soft magnetic material.
-In Fe permalloy, by adding copper (Cu), N
Unlike when the amount of i is more than 40%, the magnetic flux density (Bo) and initial magnetic permeability (I) at 10 positive are improved, and to further promote these characteristics, silicon (Sj) can be added at the same time. I found a noteworthy fact.

本発明は、この結果に基づきなされたものですなわち本
発明材料は、重量%でニッケル25〜40%,銅0.1
〜15%,シリコン0.1〜6%,残部が実質的に鉄で
なることを特徴とする。
The present invention was made based on this result, and the material of the present invention has a weight percentage of 25 to 40% nickel and 0.1% copper.
~15% silicon, 0.1~6% silicon, and the remainder substantially iron.

ここでニッケルは25%未満では磁気特性が不充分であ
るが40%を越えた範囲では前述の効果がなく、かえっ
て銅の添加は磁束密度の低下を招く。
Here, if the nickel content is less than 25%, the magnetic properties are insufficient, but if it exceeds 40%, the above-mentioned effect is not achieved, and the addition of copper actually causes a decrease in the magnetic flux density.

更にニッケルが40%を越えるものは価格が上昇し工業
上不利である。銅は0.1%より少ないと磁束密度向上
があらわれず、15%より多いと効果の増大がなくなる
とともに加工性を損なう。シリコンは0.1%禾満では
透磁率向上の効果があらわれず6%を越えると磁束密度
が低下する。このように銅を添加することにより透磁率
や磁束密度が大中に改善されることは、ボゾルス著フェ
ロマグネティズム等に示されているデータと異なるもの
であり注目される。
Furthermore, those containing more than 40% nickel are industrially disadvantageous due to increased prices. If copper is less than 0.1%, the magnetic flux density will not be improved, and if it is more than 15%, the effect will not increase and workability will be impaired. When the silicon content is 0.1%, the effect of improving magnetic permeability does not appear, and when it exceeds 6%, the magnetic flux density decreases. The fact that the magnetic permeability and magnetic flux density are improved by adding copper in this way is noteworthy because it is different from the data shown in Ferromagnetism by Bosols.

シリコンが透磁率向上に寄与することもあることは知ら
れているが、銅との複合添加により著しい効果をもたら
すことは知られていない。以下、実施例を説明する。
Although it is known that silicon sometimes contributes to improving magnetic permeability, it is not known that combined addition with copper brings about a significant effect. Examples will be described below.

表に示す所定成分でなる高周波溶解したィンゴットに通
常の熱間及び冷間加工を施こしてそれぞれ0.58肋厚
さの板とした。
High-frequency melted ingots having the specified components shown in the table were subjected to conventional hot and cold working to form plates each having a thickness of 0.58 ribs.

この板から外径45側め、内径33側めのりングを打ち
抜き、1,100oo×1時間の暁鈍を行った後冷却し
た。こうして得られた磁気測定用リングにより磁気特性
の測定を行なった。この結果を表に示す。表 ここでB,。
Alayments on the 45th outer diameter side and the 33rd inner diameter side were punched out from this plate, and after being dulled for 1,100 mm x 1 hour, they were cooled. Magnetic properties were measured using the magnetic measurement ring thus obtained. The results are shown in the table. Table here B,.

Claims (1)

【特許請求の範囲】 1 重量%でニツケル25〜40%,銅0.1〜15%
,シリコン0.1〜6%,残部が実質的に鉄でなる軟質
磁性材料。 2 重量%でニツケル25〜40%,銅0.1〜15%
,シリコン0.1〜6%,マンガン2%以下(但し0%
は含まず)、残部が実質的に鉄でなる軟質磁性材料。
[Claims] 1% by weight: nickel 25-40%, copper 0.1-15%
, a soft magnetic material consisting of 0.1 to 6% silicon and the remainder substantially iron. 2. Nickel 25-40%, copper 0.1-15% by weight
, silicon 0.1-6%, manganese 2% or less (but 0%
(excluding iron), the remainder being essentially iron.
JP52062212A 1977-05-30 1977-05-30 soft magnetic material Expired JPS609095B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP52062212A JPS609095B2 (en) 1977-05-30 1977-05-30 soft magnetic material

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP52062212A JPS609095B2 (en) 1977-05-30 1977-05-30 soft magnetic material

Publications (2)

Publication Number Publication Date
JPS53147617A JPS53147617A (en) 1978-12-22
JPS609095B2 true JPS609095B2 (en) 1985-03-07

Family

ID=13193600

Family Applications (1)

Application Number Title Priority Date Filing Date
JP52062212A Expired JPS609095B2 (en) 1977-05-30 1977-05-30 soft magnetic material

Country Status (1)

Country Link
JP (1) JPS609095B2 (en)

Also Published As

Publication number Publication date
JPS53147617A (en) 1978-12-22

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