JPS58164201A - Wound core - Google Patents

Wound core

Info

Publication number
JPS58164201A
JPS58164201A JP57046843A JP4684382A JPS58164201A JP S58164201 A JPS58164201 A JP S58164201A JP 57046843 A JP57046843 A JP 57046843A JP 4684382 A JP4684382 A JP 4684382A JP S58164201 A JPS58164201 A JP S58164201A
Authority
JP
Japan
Prior art keywords
amorphous alloy
metal
wound core
core
wound
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.)
Pending
Application number
JP57046843A
Other languages
Japanese (ja)
Inventor
Katsuto Yoshizawa
克仁 吉沢
Yasunobu Ogata
安伸 緒方
Shunsuke Arakawa
俊介 荒川
Yasuo Arai
新井 保夫
Ryozo Sawada
沢田 良三
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.)
Proterial Ltd
Original Assignee
Hitachi Metals 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 Hitachi Metals Ltd filed Critical Hitachi Metals Ltd
Priority to JP57046843A priority Critical patent/JPS58164201A/en
Publication of JPS58164201A publication Critical patent/JPS58164201A/en
Pending legal-status Critical Current

Links

Classifications

    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01FMAGNETS; INDUCTANCES; TRANSFORMERS; SELECTION OF MATERIALS FOR THEIR MAGNETIC PROPERTIES
    • H01F1/00Magnets or magnetic bodies characterised by the magnetic materials therefor; Selection of materials for their magnetic properties
    • H01F1/01Magnets or magnetic bodies characterised by the magnetic materials therefor; Selection of materials for their magnetic properties of inorganic materials
    • H01F1/03Magnets or magnetic bodies characterised by the magnetic materials therefor; Selection of materials for their magnetic properties of inorganic materials characterised by their coercivity
    • H01F1/12Magnets or magnetic bodies characterised by the magnetic materials therefor; Selection of materials for their magnetic properties of inorganic materials characterised by their coercivity of soft-magnetic materials
    • H01F1/14Magnets or magnetic bodies characterised by the magnetic materials therefor; Selection of materials for their magnetic properties of inorganic materials characterised by their coercivity of soft-magnetic materials metals or alloys
    • H01F1/147Alloys characterised by their composition
    • H01F1/153Amorphous metallic alloys, e.g. glassy metals

Abstract

PURPOSE:To improve stability and difficulty in dealing due to deterioration of the wound core using an amorphous alloy by a method wherein the metal-metal amorphous alloy having high thermal stability and being hard to be deteriorated is used as the material for the wound core. CONSTITUTION:The metal element of Ti, Zr, Hf, Y, etc., is used in place of a non-metallic element being the constituting element of a usual amorphous alloy as the element for vitrification, the metal element of Cr, Mo, Mn, Nb, etc., is added to the amorphous alloy mainly consisting of the ferromagnetic element of Co, Ni, Fe, etc., to enhance tenacity and the crystallization temperature, thermal stability and workability are enhanced, and by adding a small quantity of the non-metallic element of B, C, Si, P, etc., formation of amorphousness is facilitated, and thus obtained ferromagnetically amorphous alloy attained with improvement of the soft magnetic characteristic and having the excellent magnetic characteristic is used for the wound core. Accordingly, stability and difficulty in dealing due to deterioration of the wound core using the amorphous alloy can be improved.

Description

【発明の詳細な説明】 本発明は金鋼−金属系強磁性非晶質合金を用いた巻鉄心
忙関する。
DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a wound core using a metal-based ferromagnetic amorphous alloy.

従来、巻鉄心にはI’5−Ns金合金用いられていた。Conventionally, I'5-Ns gold alloy has been used for the wound core.

最近になり金属−非金属系非晶質合金がF# −JV 
を合金より低損失で効率が良いことから注!!を集めて
いる。しかし、金属−非金属系非晶質合金は熱的に不安
定であり温度上昇などが問題となる巻鉄心には適してい
ない。また金属−非金属系非晶質合金は熱処理すること
により脆化し扱いが困難となる。
Recently, metal-nonmetal amorphous alloys have become F#-JV.
Note that it has lower loss and better efficiency than alloys! ! are collecting. However, metal-nonmetallic amorphous alloys are thermally unstable and are not suitable for wound cores where temperature increases are a problem. Further, metal-nonmetal amorphous alloys become brittle and difficult to handle when heat treated.

本発明は上記従来技術の欠点を改良し、熱安定性に優れ
、優れた軟磁気特性を有する非晶質合金を用いた巻鉄心
vIl供することを目的とする。
It is an object of the present invention to improve the drawbacks of the above-mentioned prior art and to provide a wound core vIl using an amorphous alloy having excellent thermal stability and excellent soft magnetic properties.

、ある種の金属あるいは合金の溶湯を超急冷することに
より、原子構造の長駆S規則度のない非晶質構造V得る
ことができる。こうして得られた従来の軟−気勢性を示
す強磁性非晶質含金はH,C。
By ultra-rapidly cooling a molten metal or alloy, it is possible to obtain an amorphous structure V having no long S regularity in the atomic structure. The conventional ferromagnetic amorphous metals that exhibit soft magnetic properties obtained in this way are H and C.

51勢の非金属九mを基とする金属−非金属系合金より
なっており、41鉄心にも金属−非金属系合金を用いる
ことが考えられていた。しかしながら超急冷によって作
製された非晶質合金は準平衡状勤にあるために熱的に不
安定であり100〜150℃の比較的低温で動きや丁い
非金属元素の拡散、偏析あるいは構造緩和勢により磁気
特性の劣化、脆化等の機械的性質の劣化が起こる等の欠
点があり、巻鉄心に用いる場合鉄心の発熱によybii
&気特性のβ化、脆化による取扱いの難しさなどの問題
があった。
It is made of a metal-non-metal alloy based on the non-metallic 9m of the 41 iron core, and it was considered that a metal-non-metal alloy could also be used for the 41 iron core. However, amorphous alloys made by ultra-quenching are thermally unstable because they are in a quasi-equilibrium state, and at relatively low temperatures of 100 to 150°C, they may not move, diffusion of nonmetallic elements, segregation, or structural relaxation. There are drawbacks such as deterioration of magnetic properties and deterioration of mechanical properties such as embrittlement due to the influence of heat.
There were problems such as difficulty in handling due to beta-ization and brittleness.

一方、従来用いられているI’#−Iv4合金を用いた
巻鉄心は損失が大きく発熱量カー大きいためコアの形状
を小さくできない等の欠点がある。
On the other hand, the wound core using the conventionally used I'#-Iv4 alloy has a drawback that the core shape cannot be made small because the loss is large and the calorific value is large.

本発明の特徴はガラス化元隼として従来の非晶負合金系
の構成元素である非金属元素の代わりにTt、;lr、
Ml、Y等の金属元!Iv用い、Co 、As 、I’
−等の強磁性元素を主成分とする非晶質合金で(、’r
、Ma。
The feature of the present invention is that Tt, ;lr,
Metal sources such as Ml and Y! Using Iv, Co, As, I'
- is an amorphous alloy mainly composed of ferromagnetic elements such as (, 'r
, Ma.

IP 、Mn 、!Wb等の金属元素を加えて靭性、な
らびに結晶化温度を上は熱安定性、加工性を上げ” #
 ” e b’ tP等の非金属元素を少量添加するこ
とKより非晶質形成を容易とし、軟磁気特性改善をはか
った磁気骨性に優れた強磁性非晶質合金な用い、熱的、
機械的、−気的に優れた巻鉄心を作製した点にある、 なお、本材料を用い、磁場強度50−以上において、b
、t’又it A 、 (、’の磁場中、200℃以上
、700℃以下の温度域で#l&珈したものは、%に丁
ぐれた内温性を示すので5IPR用などとしては優れて
いる。
IP, Mn,! Adding metal elements such as Wb increases toughness, crystallization temperature, thermal stability, and workability.
By adding a small amount of nonmetallic elements such as tP, it is easier to form amorphous than K, and the use of a ferromagnetic amorphous alloy with excellent magnetic bone properties that improves soft magnetic properties.
The reason for this is that we have created a wound core with excellent mechanical and mechanical properties.
, t' or it A, (,') in the magnetic field of 200°C or higher and 700°C or lower, it exhibits excellent internal temperature properties, so it is excellent for use in 5IPR, etc. There is.

以下、本発明な実施例により説明する。The present invention will be explained below using examples.

実施例1 特許l111求の範囲に記載された組成を持つ非晶質合
金を大気中で片ロール法、双ロール法を用い作製した。
Example 1 An amorphous alloy having a composition described in the scope of Patent No. 1111 was produced in the atmosphere using a single roll method and a twin roll method.

作製した巾5霞厚さ20−の非晶質リボンを内径6■、
!I#向積α06−のトロイダルコアとし磁気%性、結
晶化温置、スイッチング電泳のコアとして使用した場合
の効率、温度上昇値Y Ill定した。
The prepared amorphous ribbon with a width of 5 cm and a thickness of 20 cm was
! As a toroidal core of I# mukai α06-, the magnetic property, crystallization incubation, efficiency when used as a core for switching electrophoresis, and temperature rise value Y Ill were determined.

第1表はこうして作製された非晶質合金を用いた巻鉄心
およびFa−h j合金を用いた巻鉄心の効率、温度上
昇値および材料の磁気特性、結晶化温度を示した表であ
る。
Table 1 is a table showing the efficiency, temperature rise value, magnetic properties of the material, and crystallization temperature of the wound core using the amorphous alloy and the wound core using the Fa-h j alloy thus prepared.

第  1  表 金属−金属系非晶質含金を用いた巻鉄心は、効率がFg
−7V i合金に比べ優れ、温度上昇値か小さく巻鉄心
材として適していることがわかる。また、結晶化温度T
Jも500℃以上と高く熱的に安定である。
Table 1: Metal-Wound cores using metal-based amorphous metals have an efficiency of Fg.
It can be seen that this material is superior to the -7V i alloy and has a small temperature rise value, making it suitable as a wound iron core material. Also, the crystallization temperature T
It is also thermally stable with a high J of 500°C or higher.

実施例2 to、No、JH,lr、、、非晶質合金な用いた巻鉄
心を作製し、150℃に保持し、5001!yBxの電
源効率の変化を掬定した。比較のためL’tr曽、、I
s、、、5番3.B、。非晶質合金を用いた巻鉄心も1
50℃に保持し500AMxの電源効率を掬定した。結
果菅@11iK示す。6はt゛0# *o*、* #、
 lr@J非晶質合金、湯はC’a、41’# 4.v
S’llB10非晶質合金を用いた巻鉄心t’ 500
KHz (1)亀IIK使用した場合の電源効率の経時
変化を示している。金属−金属系非晶質合金を用いた巻
鉄心9は2000時間経過した後もはとんど電源効率の
劣化はない。これに対して金属−非金属系非晶質合金な
用いた勺鉄心すは2000時間で約2−効率が低下した
。このように金属−金属系非晶質合金な用いた巻鉄心は
熱的に安定であり巻鉄心とし1優れていることがわかる
Example 2 To, No, JH, lr..., A wound core was prepared using an amorphous alloy, maintained at 150°C, and 5001! Changes in power efficiency of yBx were determined. For comparison, L'tr Zeng,,I
s,,, No. 5 3. B. Wound iron core using amorphous alloy is also 1
It was maintained at 50° C. and a power efficiency of 500 AMx was obtained. The results are shown in Suga@11iK. 6 is t゛0# *o*, *#,
lr@J amorphous alloy, hot water C'a, 41'# 4. v
Wound core t' 500 using S'llB10 amorphous alloy
KHz (1) Shows the change in power supply efficiency over time when using Kame IIK. The wound core 9 made of a metal-metal amorphous alloy shows almost no deterioration in power supply efficiency even after 2000 hours have passed. On the other hand, the efficiency of the metal-nonmetallic amorphous alloy used was reduced by about 2 points after 2000 hours. It can thus be seen that the wound core made of a metal-metal amorphous alloy is thermally stable and is excellent as a wound core.

従来鳴鉄心に用いられていたt゛1諸1111合金大き
く鉄心の発熱が大きいという問題があった。
There was a problem in that the 1111 alloys of t1 and 1111, which were conventionally used in core iron cores, were large and generated a large amount of heat in the core.

一方、金属−非金属系非晶質合金を用いた巻鉄心は熱的
に不安定であり、脆化などKよる扱いの困難さがあった
。そこで巻鉄心材として熱的安定性の為い、脆化しにく
い金属−金属系非晶質含金奮使用し非晶質合金な用いた
巻鉄心の安定性と脆化による扱いにくさを改善した。
On the other hand, wound cores made of metal-nonmetallic amorphous alloys are thermally unstable and difficult to handle due to K, such as embrittlement. Therefore, we used a non-embrittling metal-metallic amorphous alloy as the core material for its thermal stability, which improved the stability of the core and the difficulty in handling due to embrittlement. .

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

、第1−は本尭@による合金6と金属−非金属系非晶質
合金を用いた巻鉄心を使用した電源の電源効率のIi!
に時変化奮示した図である。 才1ffi 保pF跨肩(hr、] 持1作庁長自゛殿 5d明の名称 巻麩、ひ 神11.をする考 V、  持・SO8+  11 +’/、金属株式会社
代&a河野 県央 代   理   人 補正の内容 蔦 明細書の「特齢麹求の1illJの欄の記載を次の
通り訂正する。 「L 組成式がMa、 Tb、勧、Xdで示畜れ輩がν
・、Oo、)IiのlII又は2植以上からなる金属元
素またはその混合物、TがMO,Or %W 、 V 
%Mb、 TaMu、 Zn、 Pd%8b、 gim
、ムL、 96% Ru、 Os、Rh zXrlBe
、Mg、 8m、 mu) G(1% TI)%Dyの
1棟又は2種以上からなる金属元素、又は混合物lがZ
r、 Ti、Y、If、の1IiXはJilI以上から
なる金属元素lが八λa%s1.8のλ穏又は2 穏以上からなる非金属元素または混合物でありaΦ、o
、dはそれらの和がZooになるという条件下でJL 
−1OO7b−0−d %l :i@ b 6go、δ
≦0≦J!0,0≦d≦15を満足し結晶化温度が40
03:l’以上である曖位釣に非晶質である強磁性非晶
質合金を用いたことを特徴とする響鉄心。」 以  上
, 1st - Ii! of the power supply efficiency of a power supply using a wound core using Alloy 6 and a metal-nonmetal amorphous alloy by Motoya @!
This is a diagram showing the changes over time. 1ffi maintenance pF straddle shoulder (hr,] name of director 5d Akira Makifu, Higami 11., MOchi・SO8+ 11 +'/, metal corporation representative & a Kono prefecture center) Contents of the agent's amendment The description in the ``1illJ'' column of Tokurei Kojimu in the specification is corrected as follows: ``L The compositional formula is Ma, Tb, Kan, and
・, Oo, ) Ii or a metal element consisting of two or more plants, or a mixture thereof, T is MO, Or %W, V
%Mb, TaMu, Zn, Pd%8b, gim
, MuL, 96% Ru, Os, Rh zXrlBe
, Mg, 8m, mu) G(1%TI)%Dy
1IiX of r, Ti, Y, If, is a non-metallic element or mixture consisting of 8λa%s1.8 λ moderate or 2 moderate or more, and the metal element l consisting of JilI or more is aΦ, o
, d is JL under the condition that their sum becomes Zoo
-1OO7b-0-d %l :i@b 6go, δ
≦0≦J! 0, satisfies 0≦d≦15 and has a crystallization temperature of 40
03: A sound core characterized by using an amorphous ferromagnetic amorphous alloy for a magnetic flux having a magnetic field of 1' or more. "that's all

Claims (1)

【特許請求の範囲】 t  41 IN、式tJ’ Mtx 、Tb 、IW
t 、Xd テ示すtl、M カ1’m 、Co 。 IWtの1種又は2I1以上からなる金属元素またはそ
の混合物、TがNo 、Cr 、IP 、V 、1k 
、Ta 、J1* 、Z亀。 pd、5に、Ss、AL、Gm、Rm、i)z、Rム、
lr、lh 、My、Sws、。 flu 、 Gd 、 TA 、 Dyの1種又は2種
以上からなる金属元素、XIP、B、C,sl、S  
ノ1al又41211以上からなる非金属元素であり、
α、b、c、dはそれらの和が100になるという条件
下でα=100−b−c −d 、 j≦h≦20,5
≦C′≦20,0≦d≦15を満足し結晶化温度が40
0℃以上である優位的に非晶質で五る強−性非晶質合金
を用いたことな物像とする巻鉄心。 2、特許請求の範囲票1項記載の巻鉄心において。 とくに熱処理として200℃〜700’Cの温度に@3
において、50−以上の直流又は5c#lIの俸鍮を印
加し熱処11を施したことV%黴とする巻鉄心。
[Claims] t 41 IN, formula tJ' Mtx, Tb, IW
t, Xd te tl, M ka1'm, Co. A metal element consisting of one type or 2I1 or more of IWt, or a mixture thereof, T is No, Cr, IP, V, 1k
, Ta, J1*, Z turtle. pd, 5, Ss, AL, Gm, Rm, i)z, Rm,
lr, lh, My, Sws,. Metal element consisting of one or more of flu, Gd, TA, Dy, XIP, B, C, sl, S
It is a nonmetallic element consisting of 1al or 41211 or more,
α, b, c, d have the condition that their sum is 100, α=100-b-c-d, j≦h≦20,5
≦C'≦20, 0≦d≦15, and the crystallization temperature is 40
A wound core made of a strong amorphous alloy which is predominantly amorphous at temperatures above 0°C. 2. In the wound core described in claim 1. In particular, heat treatment at a temperature of 200°C to 700'C @3
A wound iron core that has been subjected to heat treatment 11 by applying a direct current of 50 or more or a 5c#lI brass to make the wound iron core V% moldy.
JP57046843A 1982-03-24 1982-03-24 Wound core Pending JPS58164201A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP57046843A JPS58164201A (en) 1982-03-24 1982-03-24 Wound core

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP57046843A JPS58164201A (en) 1982-03-24 1982-03-24 Wound core

Publications (1)

Publication Number Publication Date
JPS58164201A true JPS58164201A (en) 1983-09-29

Family

ID=12758618

Family Applications (1)

Application Number Title Priority Date Filing Date
JP57046843A Pending JPS58164201A (en) 1982-03-24 1982-03-24 Wound core

Country Status (1)

Country Link
JP (1) JPS58164201A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS58177432A (en) * 1982-04-13 1983-10-18 Matsushita Electric Ind Co Ltd Amorphous magnetic alloy
JPS62124703A (en) * 1985-11-25 1987-06-06 Mitsui Petrochem Ind Ltd Current sensor
US20100215851A1 (en) * 2007-04-25 2010-08-26 Tetsuya Shoji Method of producing core/shell composite nano-particles

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS58177432A (en) * 1982-04-13 1983-10-18 Matsushita Electric Ind Co Ltd Amorphous magnetic alloy
JPH0359978B2 (en) * 1982-04-13 1991-09-12 Matsushita Electric Ind Co Ltd
JPS62124703A (en) * 1985-11-25 1987-06-06 Mitsui Petrochem Ind Ltd Current sensor
US20100215851A1 (en) * 2007-04-25 2010-08-26 Tetsuya Shoji Method of producing core/shell composite nano-particles

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