JP3209280U - Household water treatment equipment - Google Patents

Household water treatment equipment Download PDF

Info

Publication number
JP3209280U
JP3209280U JP2016006109U JP2016006109U JP3209280U JP 3209280 U JP3209280 U JP 3209280U JP 2016006109 U JP2016006109 U JP 2016006109U JP 2016006109 U JP2016006109 U JP 2016006109U JP 3209280 U JP3209280 U JP 3209280U
Authority
JP
Japan
Prior art keywords
water
tap water
treatment apparatus
water treatment
nozzle
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.)
Active
Application number
JP2016006109U
Other languages
Japanese (ja)
Inventor
正志 伊藤
正志 伊藤
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.)
Fuji Keiki KK
Original Assignee
Fuji Keiki KK
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 Fuji Keiki KK filed Critical Fuji Keiki KK
Priority to JP2016006109U priority Critical patent/JP3209280U/en
Application granted granted Critical
Publication of JP3209280U publication Critical patent/JP3209280U/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Images

Landscapes

  • Water Treatment By Electricity Or Magnetism (AREA)
  • Physical Water Treatments (AREA)

Abstract

【課題】洗浄力や溶解力の効果を高める水道水の活性化処理において、家庭用に最適な小型化された水処理装置を提供する。【解決手段】家庭用へ送られる水道水の給水管に直結して取り付けられる水処理装置1は、送られてくる水道水中に含まれる空気によって微細気泡を形成する微細気泡発生部4と、微細気泡発生部4の入口側又は出口側の少なくとも一方の給水管3を挟み、互いに対応させるように配置される複数の永久磁石5とを備える。微細気泡発生部4は、ノズル14により、水道水圧によって送給される水道水の圧力をいったん高めて、その後、急激に低圧化させることで沸騰現象によりキャビテーション気泡を発生させる。【選択図】図1[PROBLEMS] To provide a miniaturized water treatment device that is optimal for household use in the activation treatment of tap water for enhancing the effects of detergency and dissolving power. A water treatment apparatus (1) that is directly connected to a water supply pipe for tap water sent to a household uses a micro-bubble generating unit (4) that forms micro-bubbles with air contained in the sent tap water, A plurality of permanent magnets 5 are provided so as to sandwich at least one water supply pipe 3 on the inlet side or the outlet side of the bubble generating unit 4 and correspond to each other. The fine bubble generating unit 4 once raises the pressure of tap water supplied by the tap water pressure by the nozzle 14 and then rapidly lowers the pressure to generate cavitation bubbles by the boiling phenomenon. [Selection] Figure 1

Description

本考案は、水道水を活性化する家庭用水処理装置に関する。   The present invention relates to a domestic water treatment apparatus that activates tap water.

従来から物理・化学的な方法で水を使用目的に応じた水質する種々の水処理技術が提案されている。このような水処理技術に水に何らかのエネルギーを付与して水を活性化させ、殺菌力や洗浄機能等を持たせる処理技術がある。   Conventionally, various water treatment techniques have been proposed for water quality according to the purpose of use by physical and chemical methods. There is a treatment technique for imparting some energy to water and activating the water to have a sterilizing power and a cleaning function.

例えば、遠赤外線放射材を塗布した数本の通水用パイプを挟み、互いに対応させるように複数個の永久磁石を配置する水処理装置が知られている(例えば、特許文献1を参照)。   For example, a water treatment apparatus is known in which a plurality of water flow pipes coated with a far-infrared radiation material are sandwiched and a plurality of permanent magnets are arranged so as to correspond to each other (see, for example, Patent Document 1).

また、液体と気体とを混合及びせん断して作製したマイクロバブル含有水に対し磁場をかけてナノバブル含有活水を製造する処理装置も知られている(例えば、特許文献2を参照)。   Moreover, the processing apparatus which manufactures a nanobubble containing active water by applying a magnetic field with respect to the microbubble containing water produced by mixing and shearing a liquid and gas is also known (for example, refer patent document 2).

特許第2622911号公報Japanese Patent No. 2622911 特許第4851400号公報Japanese Patent No. 4851400

特許文献1の水処理装置は、磁力線中に被処理水を通過させて電子励起作用により水のエネルギー準位を高め、さらに、遠赤外線放射材の熱放射体が水の吸収波長と共鳴させることで水分子を微粒子化させるものである。微粒子化された水分子を含む電荷を帯びた水が水道管内の壁に接触すると、壁に付着している赤錆等の付着物の溶解が進行していく。   The water treatment apparatus of Patent Document 1 allows water to be treated to pass through magnetic lines of force to increase the energy level of water by electronic excitation, and further, the far-infrared radiation material thermal radiator resonates with the absorption wavelength of water. In this way, water molecules are atomized. When charged water containing finely divided water molecules comes into contact with the wall in the water pipe, dissolution of deposits such as red rust on the wall proceeds.

水道水を生活用に使用する場合、管内の付着物が短時間で除去されて大量に水道水に溶解するのはあまり好ましくない。しかし、磁気を利用した磁気活水処理を受けた水道水の場合には、その分子の大きさは普通の水道水の分子と比べると10分の1程度とされ、また水道水に遠赤外線を当てたときも同程度と考えられており、付着物の溶解は徐々に進行し少量ずつ水道水に溶け込んでいく。したがって、特許文献1の水処理装置は、水道管内を衛生的に保持していくには最適といえる。しかしながら、活性水として水道水を利用して洗浄等を行うときには、即効的な効果は期待できない。   When tap water is used for daily life, it is not preferable that the deposits in the pipe are removed in a short time and dissolved in a large amount of tap water. However, in the case of tap water that has been subjected to magnetic active water treatment using magnetism, the size of the molecule is about one-tenth that of ordinary tap water, and far infrared rays are applied to tap water. It is considered to be the same level, and the dissolution of the deposit gradually proceeds and gradually dissolves in tap water. Therefore, it can be said that the water treatment apparatus of Patent Document 1 is optimal for maintaining the inside of a water pipe in a sanitary manner. However, when cleaning is performed using tap water as active water, an immediate effect cannot be expected.

よって、水道水に洗浄力や溶解力においてより高い効果が得られるように、活性水としての機能を求める場合には、水分子をさらに微粒子化させるのが良く、特許文献2においては、水に気体を混合してマイクロバブル化することで効果を高めている。この場合、水道水に気体を混入するのに水道管に気体の圧力を直接加えると水道システムに影響を及ぼすことから、特許文献2では、水道水をリザーブタンクに溜めてから気液混合している。   Therefore, when obtaining the function as active water so that a higher effect in detergency and dissolving power can be obtained in tap water, it is better to further atomize water molecules. The effect is enhanced by mixing the gas into microbubbles. In this case, if gas pressure is directly applied to the water pipe to mix the gas into the tap water, the water system will be affected. In Patent Document 2, the tap water is stored in the reserve tank and then mixed with gas and liquid. Yes.

しかしながら、水道水をタンクにリザーブして、タンク内に圧力を加える気液混合は装置が大型化し、家庭用に利用する水処理装置には不向きとなり、またコスト的にも高くなる。   However, gas-liquid mixing in which tap water is reserved in the tank and pressure is applied to the tank increases the size of the apparatus, making it unsuitable for water treatment apparatuses used for home use and increasing the cost.

上記点より、本考案は、洗浄力や溶解力の効果を高める水道水の活性化処理において、家庭用に最適な小型化された水処理装置を提供することを目的としている。   In view of the above, the present invention aims to provide a downsized water treatment apparatus that is optimal for household use in tap water activation treatment that enhances the effects of detergency and dissolving power.

上記課題を解決するために、家庭用へ送られる水道水の給水管に直結して取り付けられる水処理装置であって、前記給水管の途中に設けられ水道水圧で送られてくる水道水中に含まれる空気からキャビテーション気泡を発生させるノズルを有する微細気泡発生部と、前記微細気泡発生部の入口側又は出口側の少なくとも一方の前記給水管を挟み、互いに対応させるように配置される複数の永久磁石と、を備えたことを特徴としている。   In order to solve the above-mentioned problem, a water treatment device that is directly connected to a tap water supply pipe sent to a household, and is included in the tap water that is provided in the middle of the water supply pipe and is sent at a tap water pressure. A plurality of permanent magnets arranged so as to correspond to each other with a fine bubble generating part having a nozzle for generating cavitation bubbles from the air generated and at least one of the water supply pipes on the inlet side or the outlet side of the fine bubble generating part It is characterized by having.

そして、前記微細気泡発生部と前記永久磁石とが収納されるカバーケースを備えて、水道管や高架水槽等から通水する給水管の途中にフランジにて接続可能な家庭用水処理装置ユニットとして用いるのが好ましい。   And it has a cover case in which the fine bubble generating part and the permanent magnet are stored, and is used as a domestic water treatment device unit that can be connected by a flange in the middle of a water supply pipe that passes water from a water pipe or an elevated water tank. Is preferred.

そして、前記カバーケース内の前記給水管の外側に遠赤外線放射材を配置することで、磁気と遠赤外線との相乗効果によりより気泡をより効果的に微細化することが可能となる。   And disposing the far-infrared radiation material outside the water supply pipe in the cover case makes it possible to make the bubbles more effectively finer due to the synergistic effect of magnetism and far-infrared rays.

前記ノズルのある実施形態は、断面の径が最小の最小孔部を境にして、前記最小孔部からそれぞれ上流側及び下流側に向けて連続的に径が大きくなるよう略円錐状に刳り抜かれた第1通水室と第2通水室とから成る。水道圧で送給される水道水は第1通水室で高圧となって最小孔部から放出されると急激に低圧となり、沸騰現象で微細なキャビテーション気泡が生成される。   An embodiment of the nozzle is hollowed out in a substantially conical shape so that the diameter continuously increases from the minimum hole to the upstream side and the downstream side, with the minimum hole having the minimum cross-sectional diameter as a boundary. It consists of a first water passage and a second water passage. The tap water supplied with the tap pressure becomes a high pressure in the first water passage chamber and becomes a low pressure when released from the minimum hole, and fine cavitation bubbles are generated by the boiling phenomenon.

この場合、入口側にノズルの軸線に対し傾斜した角度で水を取り込む取水口を有する構成にするとよい。これにより、水は水道圧によって軸線方向に対して斜めの方向から導入されて、前記第1通水室の内壁を螺旋状に高速旋回しながら圧力を高めて、最小孔部から前記第2通水室へと放出される。   In this case, it is preferable that the inlet side has a water intake port that takes in water at an angle inclined with respect to the axis of the nozzle. As a result, water is introduced from an oblique direction with respect to the axial direction by tap water pressure, and the pressure is increased while rotating the inner wall of the first water flow chamber in a spiral manner at a high speed, so that the second passage through the minimum hole portion. Released into the water chamber.

前記ノズルの別の実施形態は、軸方向に沿って配置される複数の通水部を備えて、前記通水部は、中央部分が円筒形状であって、両端にはそれぞれ上流側及び下流側に向けて連続的に拡径するようテーパ部が形成される。これにより、水道圧で送給される水道水は、各通水部に分流され且つ入口側はテーパ部によって狭窄しているために高圧となり、そして出口側から放出されたとき急激に低圧化することで、沸騰現象で微細なキャビテーション気泡が生成される。   Another embodiment of the nozzle includes a plurality of water passage portions arranged along an axial direction, and the water passage portion has a cylindrical shape at a central portion, and upstream and downstream sides at both ends, respectively. A taper portion is formed so as to continuously expand the diameter. As a result, the tap water supplied by the tap pressure is diverted to each water passing portion and the inlet side is constricted by the taper portion, so that the pressure becomes high, and when it is discharged from the outlet side, the pressure decreases rapidly. As a result, fine cavitation bubbles are generated by the boiling phenomenon.

本考案に係る家庭用水処理装置は、水道直結で水道水に含まれている空気によって微細気泡を水道水に含有させるために、装置が大型化せずしかも安全な活性水が生成される。そして、水道水を磁場の中を通過させる磁気活水処理を行い、微細気泡含有磁気活性水に変換することで、水が本来有している洗浄力・溶解力の機能を向上することができる。   In the domestic water treatment apparatus according to the present invention, since the fine bubbles are contained in the tap water by the air contained in the tap water directly connected to the tap water, the active water is generated without increasing the size of the apparatus. And the function of the detergency / solvent power which water originally has can be improved by performing the magnetic active water process which passes a tap water through the inside of a magnetic field, and converting into a microbubble containing magnetic active water.

本考案に係る家庭用水処理装置の側面断面図を示す。Side surface sectional drawing of the domestic water treatment apparatus which concerns on this invention is shown. (a)は微細気泡発生部の上流側からの外観斜視図を示し、(b)は微細気泡発生部の下流側からの外観斜視図を示す。(A) shows an external perspective view from the upstream side of the fine bubble generating part, and (b) shows an external perspective view from the downstream side of the fine bubble generating part. (a),(b),(c)はそれぞれ微細気泡発生部の取水部の上流側からの平面図、側面図、下流側からの平面図を示す。(A), (b), (c) shows the top view from the upstream of the intake part of a microbubble generation | occurrence | production part, a side view, and the top view from a downstream, respectively. ノズル内での作用の模式的な説明を示す。A schematic explanation of the action in the nozzle is shown. ノズルの他の構成例を側面図で示す。The other structural example of a nozzle is shown with a side view. 水処理装置において永久磁石が取り付けられる部分を水道水の流れと直交する方向からの断面図で示す。The part in which a permanent magnet is attached in a water treatment apparatus is shown with sectional drawing from the direction orthogonal to the flow of tap water.

本考案の実施形態を図面を参照して説明する。図1は本考案に係る水処理装置1の構成を側断面図で示し、水道の配水管や高架水槽等からの水を蛇口へと導く給水管3の途中に配置される。   Embodiments of the present invention will be described with reference to the drawings. FIG. 1 shows a configuration of a water treatment apparatus 1 according to the present invention in a side sectional view, and is arranged in the middle of a water supply pipe 3 that guides water from a water pipe, an elevated water tank, etc. to a faucet.

水処理装置1は、給水管3の途中に設けられて送られてくる水道水中に含まれている空気にキャビテーションを発生させることで微細気泡を形成する微細気泡発生部4と、微細気泡発生部4の出口側に接続される給水管3を挟み、互いが対応するように配置される複数の永久磁石5とを備えて、これらをケース2内に収納してユニット化している。給水管3は図では左側が上流側となっており、途中で上流管部3Aと下流管部3Bとに分断されて、その間に水処理装置1が接続されている。   The water treatment apparatus 1 includes a fine bubble generating unit 4 that forms fine bubbles by generating cavitation in air included in tap water that is provided and sent in the middle of a water supply pipe 3, and a fine bubble generating unit. 4 and a plurality of permanent magnets 5 disposed so as to correspond to each other with a water supply pipe 3 connected to the outlet side of 4 being accommodated in the case 2 and unitized. The left side of the water supply pipe 3 is the upstream side in the drawing, and is divided into an upstream pipe part 3A and a downstream pipe part 3B on the way, and the water treatment device 1 is connected therebetween.

微細気泡発生部4は、上流側に位置する管状部材11と、管状部材11の入口開口に嵌め込まれる取水部12と、下流側に配置されて管状部材11より大径の円筒部材13と、円柱形状のノズル14とから構成されている。図2の(a),(b)は、取水部12を取り外した状態で微細気泡発生部4のそれぞれ上流側及び下流側からの外観斜視図を示している。   The fine bubble generating part 4 includes a tubular member 11 located on the upstream side, a water intake part 12 fitted in the inlet opening of the tubular member 11, a cylindrical member 13 disposed downstream and larger in diameter than the tubular member 11, and a column And a nozzle 14 having a shape. (A), (b) of FIG. 2 has shown the external perspective view from the upstream and downstream of the fine bubble generation | occurrence | production part 4 in the state which removed the water intake part 12, respectively.

管状部材11は、その外周にネジ部11aを有して、給水管3の上流管部3Aに挿入される螺合により接続される。また、円筒部材13は、その内周にネジ部13aを有して、挿入される給水管3の下流管部3Bの先端と螺合によって接続される。管状部材11の外周には環状のゴムパッキン17が嵌め込まれており、管状部材11が上流管部3Aに挿入されたとき、上流管部3Aの環状の端面はゴムパッキン17を介在して円筒部材13の端面と接触する。   The tubular member 11 has a threaded portion 11 a on the outer periphery thereof and is connected by screwing inserted into the upstream tube portion 3 </ b> A of the water supply tube 3. Moreover, the cylindrical member 13 has the thread part 13a in the inner periphery, and is connected with the front-end | tip of the downstream pipe part 3B of the water supply pipe 3 inserted by screwing. An annular rubber packing 17 is fitted on the outer periphery of the tubular member 11, and when the tubular member 11 is inserted into the upstream pipe portion 3 </ b> A, the annular end surface of the upstream pipe portion 3 </ b> A is interposed between the rubber packing 17 and the cylindrical member. 13 end faces are contacted.

ノズル14の外径は管状部材11の内径と略等しく、また円筒部材13の底面の中心にはノズル14の外径と略等しい径の丸孔が形成されている。よって、ノズル14は円筒部材13の底面を貫通して管状部材11に挿入された状態で保持されている。   The outer diameter of the nozzle 14 is substantially equal to the inner diameter of the tubular member 11, and a round hole having a diameter substantially equal to the outer diameter of the nozzle 14 is formed at the center of the bottom surface of the cylindrical member 13. Therefore, the nozzle 14 is held in a state of being inserted into the tubular member 11 through the bottom surface of the cylindrical member 13.

そして、ノズル14内は、中央部が断面の径が最小となる最小孔部141となっており、最小孔部141からそれぞれ左右に延びるにしたがい径が大きくなるよう略円錐状に刳り抜かれた通水部15が形成されている。よって、通水部15は、取水部12が取り付けられて通水方向に沿って最小孔部141に向けて徐々に断面の径が小さくなる形状を有する第1通水室15aと、最小孔部141から通水方向に沿って徐々に断面の径が大きくなる形状を有する第2通水室15bとで構成される。   In the nozzle 14, a central hole is a minimum hole 141 having a minimum cross-sectional diameter, and the nozzle 14 is hollowed out in a substantially conical shape so that the diameter increases from the minimum hole 141 to the left and right. A water portion 15 is formed. Therefore, the water flow portion 15 includes the first water flow chamber 15a having the shape in which the diameter of the cross section gradually decreases toward the minimum hole portion 141 along the water flow direction with the water intake portion 12 attached, and the minimum hole portion. 141 and the second water flow chamber 15b having a shape in which the diameter of the cross section gradually increases along the water flow direction.

取水部12は円盤状の部材で成り、図3(a)で示すように平面には、同心状に4つの丸孔形状の取水口12aが設けられている。図3(b)の側面図で示すように、この丸孔は奥行き方向の中心軸がノズル14の中心軸方向に対して傾斜するよう形成されており、よって、各取水口12aは図3(c)で示すように斜円柱の形状となっている。   The water intake portion 12 is formed of a disk-shaped member, and as shown in FIG. 3A, four round hole-shaped water intake ports 12a are provided concentrically on the plane. As shown in the side view of FIG. 3 (b), this round hole is formed so that the central axis in the depth direction is inclined with respect to the central axis direction of the nozzle 14, and thus each intake port 12a is formed in FIG. As shown in c), the shape is an oblique cylinder.

各取水口12aが斜円柱の形状を有することで、水道圧で各取水口12aへ加圧送給されたれた水道水は、第1通水室15aの内壁に向けて吹き出されて、図4で示すように、内壁を螺旋状に旋回しながら最小孔部141に近づくほど速度を上げ、最小孔部141から第2通水室15bへ放出される。   Since each intake port 12a has the shape of a slanted cylinder, the tap water pressurized and fed to each intake port 12a by tap pressure is blown out toward the inner wall of the first water flow chamber 15a. As shown in the figure, the speed is increased as it approaches the minimum hole 141 while spirally turning the inner wall, and is discharged from the minimum hole 141 to the second water passage 15b.

そして、ノズル14の第1通水室15Aから高圧で吹き出された水は、第2通水室15b内では急激な圧力低下が生じて、沸騰現象により無数の微細なキャビテーション気泡が発生して、下流管部3Bへと放出される。水道水圧は1.5kgf/cm(0.15MPa)が下限とされており、ノズル14は、一般家庭に供給されている水道水の中に含まれている空気をこの水道水の圧力だけで、キャビテーションにより微細化された気泡を含む水にする。この場合の理想的な水道水圧は、2.0乃至4.0kgf/cm(0.2乃至0.39MPa)である。 Then, the water blown out from the first water flow chamber 15A of the nozzle 14 at a high pressure undergoes a rapid pressure drop in the second water flow chamber 15b, and countless fine cavitation bubbles are generated due to the boiling phenomenon, It discharges | emits to the downstream pipe part 3B. The lower limit of the tap water pressure is 1.5 kgf / cm 2 (0.15 MPa), and the nozzle 14 allows the air contained in the tap water supplied to ordinary households to be reduced only by the tap water pressure. , Make water containing bubbles refined by cavitation. The ideal tap water pressure in this case is 2.0 to 4.0 kgf / cm 2 (0.2 to 0.39 MPa).

永久磁石5は、下流管部3Aの外周にS極とN極とが対向するよう配置されて押え部材18によって保持されている。図6は、水処理装置1において永久磁石5が取り付けられる部分を水道水の流れと直交する方向からの断面図で示している。この永久磁石5には、例えば、4000ガウスの希土類磁石を採用している。よって、ノズル14から噴出された水は、下流管部3Aの永久磁石5が配置されている部分を通過すると磁極間を直角に横切ることになり、磁化作用を受けて水分子が電子励起作用を受け、エネルギー準位が高められて磁気活性化される。   The permanent magnet 5 is disposed on the outer periphery of the downstream pipe portion 3A so that the S pole and the N pole face each other, and is held by a pressing member 18. FIG. 6 shows a portion where the permanent magnet 5 is attached in the water treatment device 1 in a cross-sectional view from a direction orthogonal to the flow of tap water. For example, a 4000 gauss rare earth magnet is used as the permanent magnet 5. Therefore, when the water ejected from the nozzle 14 passes through the portion where the permanent magnet 5 of the downstream pipe portion 3A is disposed, it crosses the magnetic poles at right angles, and the water molecules undergo an electron excitation action due to the magnetization action. In response, the energy level is increased and magnetic activation is performed.

すなわち、水はイオンを含み、電気伝導度をもっていることから、磁場に触れると水分子間でエネルギー転換が激しく起こる。これは水分子にも極性があり、そのうちの一つが陰電荷(−)、他の一つが陽電荷(+)であり、磁場作用によって電荷を帯びた高エネルギー状態の粒子が微粒子化されることで、水分子が活性化される。   In other words, since water contains ions and has electrical conductivity, energy conversion between water molecules occurs violently when exposed to a magnetic field. This is because water molecules are also polar, one of which is negatively charged (-) and the other is positively charged (+), and the charged high-energy particles are atomized by the magnetic field action. Thus, water molecules are activated.

したがって、上記構成によれば、微細気泡発生部4から噴出される微細気泡含有水に対して磁場を印加することで、微細気泡含有水に磁気活性を付与すること微細気泡含有磁気活性水に変換することができる。微細気泡含有磁気活性水は、クラスターが非常に小さく
なるとされており、水の浸透力・溶解力・洗浄力・浄化力が格段に活性化された状態となる。
Therefore, according to the above configuration, the magnetic activity is imparted to the fine bubble-containing water by applying a magnetic field to the fine bubble-containing water ejected from the fine bubble generation unit 4 and converted into the fine bubble-containing magnetically active water. can do. The microbubble-containing magnetically active water is said to have a very small cluster, and the water penetration, dissolution, cleaning, and purification are significantly activated.

本実施の形態では、微細気泡発生部4の下流に永久磁石5を配置しているが、永久磁石5を微細気泡発生部4の上流に配置してもよい。すなわち、水道水を先ず磁場の中を通過させて磁気活性水とした後、微細気泡発生部4を通すことで微細気泡含有磁気活性水に変換するものである。   In the present embodiment, the permanent magnet 5 is arranged downstream of the fine bubble generating unit 4, but the permanent magnet 5 may be arranged upstream of the fine bubble generating unit 4. That is, tap water is first passed through a magnetic field to form magnetically active water, and then converted to fine bubble-containing magnetically active water by passing through the fine bubble generating unit 4.

さらに、本実施形態では、下流管部3Aの外周には、環状に遠赤外線放射材16を取り付けている。遠赤外線放射材は、8乃至14μmの波長の電磁波を放出する。これは水の持つ振動数の波長とほぼ同じであり、吸収され熱エネルギーを発生し、共振(共鳴)運動を引き起こすことで水分子を活性化させる。遠赤外線放射材16は、水道管3に塗布するだけでなく、ケース2の内壁上に配置してもよい。   Furthermore, in this embodiment, the far-infrared radiation | emission material 16 is attached to the outer periphery of 3 A of downstream pipe parts cyclically. The far-infrared emitting material emits electromagnetic waves having a wavelength of 8 to 14 μm. This is substantially the same as the wavelength of water's frequency, and is absorbed to generate thermal energy, which activates water molecules by causing resonance (resonance) motion. The far-infrared radiation material 16 may be disposed on the inner wall of the case 2 as well as being applied to the water pipe 3.

水道水中に含まれる空気からキャビテーションにより微細化された気泡を含む水を生成するノズルには、種々の構成が考えられる。図5は、微細気泡を生成するための別の形状のノズル20の構造を模式的に示している。このノズル20は、フランジ28によって両端で給水管3と接続されており、上流の給水管3との接続部には、下流に向けて連続的に拡径されたテーパ部21aを有する円錐状の部材である取込部21を備えて、下流の給水管3との接続部には、噴出口26に向けて連続的に縮径されたテーパ部22aを有する円錐状の部材である噴出部22を備えている。   Various configurations are conceivable for nozzles that generate water containing bubbles that are refined by cavitation from air contained in tap water. FIG. 5 schematically shows the structure of the nozzle 20 having another shape for generating fine bubbles. The nozzle 20 is connected to the water supply pipe 3 at both ends by flanges 28, and a conical shape having a tapered portion 21 a continuously expanded toward the downstream is connected to the upstream water supply pipe 3. The jet part 22 which is provided with the intake part 21 which is a member and has a tapered part 22a continuously reduced in diameter toward the jet port 26 at the connection part with the downstream water supply pipe 3 It has.

取込部21と噴出部22との間には、ノズル20の軸方向に沿って複数の通水部26が配置されている。各通水部26は、中央に円筒形状の通水孔23を備えて、その両端には、上流側及び下流側に向かって連続的に拡径して形成されるテーパ部24,25がそれぞれ形成されている。   Between the intake part 21 and the ejection part 22, the some water flow part 26 is arrange | positioned along the axial direction of the nozzle 20. As shown in FIG. Each water flow portion 26 includes a cylindrical water flow hole 23 at the center, and tapered portions 24 and 25 formed by continuously expanding the diameter toward the upstream side and the downstream side, respectively, at both ends thereof. Is formed.

ノズル20の作用を説明する。ノズル20は、給水管3からの水道水が取込部21へ導入されると、テーパ部21aによって水流を各通水部26へと導く。よって、水道水は分流されることで圧力が高まり、そしてそれぞれの通水部26では、その入口側がテーパ部24によって下流側に向けて縮径されて狭窄しているために、入口側周辺では渦流が生じて水どうしが激しく衝突することで、さらに圧力が高められて通水孔23へ導入される。   The operation of the nozzle 20 will be described. When the tap water from the water supply pipe 3 is introduced into the intake portion 21, the nozzle 20 guides the water flow to each water flow portion 26 by the tapered portion 21 a. Therefore, the tap water is diverted to increase the pressure, and in each of the water passing portions 26, the diameter of the inlet side is reduced toward the downstream side by the tapered portion 24, so that it is narrowed around the inlet side. The vortex is generated and the water collides violently, so that the pressure is further increased and introduced into the water passage hole 23.

そして、通水孔23を通過した水は、テーパ部25により拡散されて低圧となり、沸騰現象により無数の微細なキャビテーション気泡が発生する。そして、キャビテーション気泡を含む水道水は、噴出部22に集められて、テーパ部22aを通して噴出口27から噴出される。   And the water which passed the water flow hole 23 is spread | diffused by the taper part 25, and becomes a low voltage | pressure, and countless fine cavitation bubbles generate | occur | produce by a boiling phenomenon. And the tap water containing a cavitation bubble is collected by the ejection part 22, and is ejected from the ejection port 27 through the taper part 22a.

上記構成の水処理装置1は、一般家庭に供給されている水道に直結されて、水道水の中に含まれている空気を水道水の圧力だけで、キャビテーション作用で微細気泡化している。そして、水処理装置1は、水道メーターの下流側に配置されるが、水道メーターから蛇口までの配管距離は平均で15メートル程度とされている。この場合、微細気泡の目視は不可能であるが、暗所におけるレーザーポインターによって被処理水にレーザーを当てて気泡からの反射光を検出することで、15メートルの配管の末端でも微細気泡が形成されていることが確認される。   The water treatment apparatus 1 having the above-described configuration is directly connected to a tap water supplied to a general household, and the air contained in the tap water is microbubbled by a cavitation action only by the tap water pressure. And although the water treatment apparatus 1 is arrange | positioned downstream of a water meter, the piping distance from a water meter to a faucet is about 15 meters on average. In this case, fine bubbles cannot be visually observed, but fine bubbles are formed even at the end of a 15-meter pipe by detecting the reflected light from the bubbles by applying a laser to the water to be treated with a laser pointer in a dark place. It is confirmed that

そして、水道水を磁場の中を通過させて微細気泡含有磁気活性水に変換することで、水が本来有している洗浄力・溶解力の機能を50%程度さらに高めることができる。しかも、水道直結であることから、水道水以外のものは入っていない安全且つ安心である。   Then, by passing the tap water through the magnetic field and converting it into the magnetically active water containing fine bubbles, it is possible to further improve the functions of the cleaning power and the dissolving power inherent in the water by about 50%. Moreover, since it is directly connected to the water supply, it is safe and secure that nothing other than tap water is contained.

上記微細気泡含有磁気活性水を利用したときの主な効果としては、次のものがある。
(1)末梢血管の血行促進や血液流の増大による温浴・保温効果
(2)人体や動物などの生体や配水管の内部の洗浄効果
(3)植物や魚の生育効果
(4)マイルドな気泡によるマッサージ効果
The main effects when using the magnetic active water containing fine bubbles are as follows.
(1) Thermal bathing and heat retention effects by promoting blood circulation in peripheral blood vessels and increasing blood flow (2) Cleaning effects inside living bodies and water pipes such as human bodies and animals (3) Growth effects on plants and fish (4) Due to mild bubbles Massage effect

1 水処理装置
2 カバーケース
3 給水管
4 微細気泡発生部
5 永久磁石
12 取水部
12a 取水口
14 ノズル
15a 第1通水室
15b 第2通水室
16 遠赤外線放射材
23 通水部
DESCRIPTION OF SYMBOLS 1 Water treatment apparatus 2 Cover case 3 Water supply pipe 4 Fine bubble generation part 5 Permanent magnet 12 Water intake part 12a Water intake port 14 Nozzle 15a 1st water flow chamber 15b 2nd water flow chamber 16 Far-infrared radiation material 23 Water flow part

Claims (6)

家庭用へ送られる水道水の給水管に直結して取り付けられる水処理装置であって、
前記給水管の途中に設けられ水道水圧で送られてくる水道水中に含まれる空気からキャビテーション気泡を発生させるノズルを有する微細気泡発生部と、
前記微細気泡発生部の入口側又は出口側の少なくとも一方の前記給水管を挟み、互いに対応させるように配置される複数の永久磁石と、
を備えたことを特徴とする水処理装置。
A water treatment device that is directly connected to a water supply pipe for tap water to be sent to homes,
A fine bubble generator having a nozzle that generates cavitation bubbles from air contained in tap water that is provided in the middle of the water supply pipe and is sent at tap water pressure;
A plurality of permanent magnets arranged so as to correspond to each other, sandwiching at least one of the water supply pipes on the inlet side or the outlet side of the fine bubble generating unit;
A water treatment apparatus comprising:
前記微細気泡発生部と前記永久磁石とが収納されるカバーケースを備えたことを特徴とする請求項1に記載の水処理装置。   The water treatment apparatus according to claim 1, further comprising a cover case in which the fine bubble generating unit and the permanent magnet are accommodated. 前記カバーケース内の前記給水管の外側に遠赤外線放射材を配置したことを特徴とする請求項2に記載の水処理装置。   The water treatment apparatus according to claim 2, wherein a far-infrared radiation material is disposed outside the water supply pipe in the cover case. 前記ノズルは、断面の径が最小の最小孔部を境にして、前記最小孔部からそれぞれ上流側及び下流側に向けて連続的に径が大きくなるよう略円錐状に刳り抜かれた第1通水室と第2通水室とから成ることを特徴とする請求項1に記載の家庭用水処理装置。   The nozzle has a first passage that is hollowed out in a substantially conical shape so that the diameter continuously increases from the minimum hole portion toward the upstream side and the downstream side, with the minimum hole portion having a minimum cross-sectional diameter as a boundary. The domestic water treatment apparatus according to claim 1, comprising a water chamber and a second water flow chamber. 上流側の前記第1通水室の水道水の入口側には複数の取水口を有する取水部を設けて、
前記取水口は奥行き方向の中心軸が前記ノズルの中心軸方向に対して傾斜するよう形成されていることを特徴とする請求項4に記載の家庭用水処理装置。
A water intake section having a plurality of water intakes is provided on the inlet side of tap water of the first water passage on the upstream side,
The domestic water treatment apparatus according to claim 4, wherein the water intake is formed such that a central axis in a depth direction is inclined with respect to a central axis direction of the nozzle.
前記ノズルは、軸方向に沿って配置される複数の通水部を備えて、
前記通水部は、中央部分が円筒形状であって、両端にはそれぞれ上流側及び下流側に向けて連続的に拡径するようテーパ部が形成されていることを特徴とする請求項1に記載の家庭用水処理装置。
The nozzle includes a plurality of water passing portions arranged along the axial direction,
The center portion of the water flow portion has a cylindrical shape, and tapered portions are formed at both ends so as to continuously expand toward the upstream side and the downstream side, respectively. The household water treatment apparatus as described.
JP2016006109U 2016-12-21 2016-12-21 Household water treatment equipment Active JP3209280U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP2016006109U JP3209280U (en) 2016-12-21 2016-12-21 Household water treatment equipment

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP2016006109U JP3209280U (en) 2016-12-21 2016-12-21 Household water treatment equipment

Publications (1)

Publication Number Publication Date
JP3209280U true JP3209280U (en) 2017-03-09

Family

ID=58232551

Family Applications (1)

Application Number Title Priority Date Filing Date
JP2016006109U Active JP3209280U (en) 2016-12-21 2016-12-21 Household water treatment equipment

Country Status (1)

Country Link
JP (1) JP3209280U (en)

Cited By (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP6439069B1 (en) * 2018-04-15 2018-12-19 株式会社Polaris Water supply system
JP2019025451A (en) * 2017-08-02 2019-02-21 株式会社富士計器 Fine bubble water generator
WO2019049650A1 (en) * 2017-09-05 2019-03-14 株式会社富士計器 Microbubble liquid generator
JP2019103988A (en) * 2017-12-14 2019-06-27 東芝ライフスタイル株式会社 Pouring device and washer
JP2019166496A (en) * 2018-03-26 2019-10-03 株式会社富士計器 Microbubble liquid supply system
KR102125301B1 (en) * 2018-12-31 2020-06-22 대전대학교 산학협력단 Wastewater treatment turbulence unit and wastewater treatment method using the same
CN112387136A (en) * 2019-08-16 2021-02-23 株式会社富士计器 Micro-bubble liquid supply system in apartment
JP7022466B1 (en) 2021-02-01 2022-02-18 テンソー電磁技術工業株式会社 Micro bubble amplification device

Cited By (17)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP7012482B2 (en) 2017-08-02 2022-01-28 株式会社富士計器 Fine bubble water generator
JP2019025451A (en) * 2017-08-02 2019-02-21 株式会社富士計器 Fine bubble water generator
CN109382013A (en) * 2017-08-02 2019-02-26 株式会社富士计器 Micro air bubble Water generator
CN109382013B (en) * 2017-08-02 2022-10-11 株式会社富士计器 Micro-bubble water generator
JP2019042700A (en) * 2017-09-05 2019-03-22 株式会社富士計器 Fine bubble liquid generator
CN111093817A (en) * 2017-09-05 2020-05-01 株式会社富士计器 Micro-bubble liquid generator
CN111093817B (en) * 2017-09-05 2022-06-14 株式会社富士计器 Micro-bubble liquid generator
WO2019049650A1 (en) * 2017-09-05 2019-03-14 株式会社富士計器 Microbubble liquid generator
JP2019103988A (en) * 2017-12-14 2019-06-27 東芝ライフスタイル株式会社 Pouring device and washer
JP2019166496A (en) * 2018-03-26 2019-10-03 株式会社富士計器 Microbubble liquid supply system
JP2019183554A (en) * 2018-04-15 2019-10-24 株式会社Polaris Water supply system
WO2019203165A1 (en) * 2018-04-15 2019-10-24 株式会社Polaris Water supply system
JP6439069B1 (en) * 2018-04-15 2018-12-19 株式会社Polaris Water supply system
KR102125301B1 (en) * 2018-12-31 2020-06-22 대전대학교 산학협력단 Wastewater treatment turbulence unit and wastewater treatment method using the same
CN112387136A (en) * 2019-08-16 2021-02-23 株式会社富士计器 Micro-bubble liquid supply system in apartment
JP7022466B1 (en) 2021-02-01 2022-02-18 テンソー電磁技術工業株式会社 Micro bubble amplification device
JP2022117919A (en) * 2021-02-01 2022-08-12 テンソー電磁技術工業株式会社 Micro bubble amplification device

Similar Documents

Publication Publication Date Title
JP3209280U (en) Household water treatment equipment
JP4563496B1 (en) Microbubble generator
CN109382013B (en) Micro-bubble water generator
JP2006289183A (en) Nano-bubble forming method and apparatus
JP2010075838A (en) Bubble generation nozzle
WO2019049650A1 (en) Microbubble liquid generator
KR20120029259A (en) Apparatus for generating water containing micro-nano bubbles
KR200497577Y1 (en) Nano-bubble generator device
KR101268165B1 (en) Water treatment facility using cavitation effect and induction heating
JP3213014U (en) Microbubble water generator for washing machines
KR101247110B1 (en) Water treatment facility using cavitation effec
KR101824240B1 (en) High-density micro-bubble generating device
KR101178781B1 (en) Device for generating micro bubble and pipe using the same
JP2011115674A (en) Micronization mixer
CN105948376A (en) Advanced wastewater treatment device
KR20200074579A (en) Nano-bubble generator
KR102311634B1 (en) Nano bubble generating nozzle
KR102455181B1 (en) Nano-bubble generator device
KR101324133B1 (en) Apparatus for generating micro bubbles
CN202777237U (en) Wound surface sterilization cleaning device utilizing ultrasonic technology to mix ozone gas with liquor
JP7089342B2 (en) Fine bubble generator
KR101324134B1 (en) Apparatus of aerating treatment
KR20190105419A (en) Nano bubble generator
KR102511676B1 (en) Nano-bubble generator device
KR102473848B1 (en) Nano-bubble generator device

Legal Events

Date Code Title Description
R150 Certificate of patent or registration of utility model

Ref document number: 3209280

Country of ref document: JP

Free format text: JAPANESE INTERMEDIATE CODE: R150

R250 Receipt of annual fees

Free format text: JAPANESE INTERMEDIATE CODE: R250

R250 Receipt of annual fees

Free format text: JAPANESE INTERMEDIATE CODE: R250

R250 Receipt of annual fees

Free format text: JAPANESE INTERMEDIATE CODE: R250

R250 Receipt of annual fees

Free format text: JAPANESE INTERMEDIATE CODE: R250

R250 Receipt of annual fees

Free format text: JAPANESE INTERMEDIATE CODE: R250