JP4124763B2 - Adherent inspection sample recovery apparatus and ultrasonic horn for the apparatus - Google Patents

Description

  The present invention relates to a deposit inspection sample collecting apparatus for collecting deposits adhering to a surface to be inspected and an ultrasonic horn for the apparatus. In particular, the deposit inspection sample collection device for collecting deposits attached to the floor and wall surfaces of radioactive material handling facilities and medical facilities more reliably and efficiently without leaving them on the surface to be inspected as much as possible. And an ultrasonic horn for the apparatus.

  In facilities where radioactive materials are used, inspection of surface contamination by radioactive materials is required to ensure safety. Also, paying attention to antibacterial measures is an important factor in places where clean and clean environments are required, such as hospitals and welfare facilities. Sampling fungi (referring to bacteria and fungi such as fungi) attached to the floor in such a place and investigating the type and number of fungi is important in preventing infection.

  As one of the method for detecting the contamination status and the method for sampling the fungi adhering to the floor surface, as described in Patent Document 1, the recovered solution is supplied to the adhering material adhering to the wall surface and the floor surface and ultrasonic cleaning is performed. In addition, there is a deposit inspection sample collection device that collects the deposit by sucking and collecting the drained liquid that has been washed into the drain liquid tank section.

  FIG. 7 is an overall explanatory view showing an outline of a conventional attached matter inspection sample collecting apparatus according to Patent Document 1, FIG. 8 is a view showing an ultrasonic cleaning unit of the attached matter inspection sample collecting apparatus shown in FIG. FIG. 9 is a bottom view of the ultrasonic cleaning unit shown in FIG. 8.

  A conventional deposit inspection sample recovery apparatus 51 includes a recovery solution supply means 60 for supplying a recovery solution, an ultrasonic cleaning means 70 for ultrasonically cleaning the liquid, and a discharged liquid tank portion (discharge liquid). It comprises a discharged liquid recovery means 80 for recovery to a storage section 82 and a control section 90 for controlling each means.

  The recovery solution supply means 60 includes a recovery solution tank unit 62 that stores the recovery solution, and a recovery solution supply unit (for example, 5 cc) for supplying a predetermined amount (for example, 5 cc) of the recovery solution in the recovery solution tank unit 62. The supply solution is supplied to the ultrasonic cleaning unit 70 a via the supply pipe 63.

  The discharged liquid recovery means 80 includes a discharged liquid suction part (for example, a discharge pump part) 81 for recovering the discharged liquid in which the deposit 56 and the collected solution shown in FIG. 8 are mixed, and the suctioned and recovered discharged liquid. It consists of a discharge liquid tank section 82 for storing, and is discharged from the ultrasonic cleaning section 70 a via a discharge pipe 83.

  The ultrasonic cleaning means 70 includes an ultrasonic transducer unit 71 that generates ultrasonic waves, an ultrasonic oscillation control unit 74 for causing the ultrasonic transducer unit 71 to oscillate at a predetermined frequency and a predetermined amplitude, The horn part 72 is provided at the tip of the vibrator part 71. The ultrasonic transducer unit 71 incorporates a transducer that generates ultrasonic waves using the piezoelectric effect, the magnetostrictive effect, and the like.

  The wave oscillated by the ultrasonic transducer unit 71 propagates to the horn unit 72, the ultrasonic wave is applied to the deposit 56 from the front end 72a of the horn unit 72, and the strong dirt is peeled and washed. That is, the deposit 56 is peeled off from the floor surface 55 and mixed with the recovered solution. Further, the ultrasonic oscillation control unit 24 can adjust the amplitude of the ultrasonic wave.

  A supply / drainage case 73 is provided outside the horn portion 72. That is, the supply / drainage case 73 is fixed with bolts so as to sandwich the flange portion of the horn portion 72. The ultrasonic transducer unit 71, the horn unit 72, and the supply / drainage case 73 are integrally fixed to form an ultrasonic cleaning unit 70a. One or a plurality of arcuate supply / discharge grooves 73a (four in this example) are formed on the inner peripheral surface of the supply / discharge liquid case 73. A supply pipe 63 or a discharge pipe 83 is connected to the supply / discharge groove 73a. A packing 75 is provided at the lower end of the supply / drainage case 73. That is, the floor surface 55 and the ultrasonic cleaning unit 70a can be in close contact with each other. As a result, when the discharged liquid suction part 81 is operated, the discharged liquid can be sucked.

JP 2004-271183 A

  However, as shown in FIG. 8, the conventional deposit inspection sample collecting apparatus 51 often has a breeze blowing near the floor surface 55 due to convection of air or the like, and is provided outside the horn portion 72. When the recovered solution is supplied through the supply / discharge groove 73a, the recovered solution cannot be supplied in a stable state immediately below the horn portion 72 due to the influence of the breeze near the floor surface 55, and the cleaning state deteriorates. There was a problem that efficiency decreased.

  Further, the front end portion 72a of the horn portion 72 that contacts the floor surface 55 via the recovered solution has the front end portion 72a parallel to the floor surface 55 in order to make the liquid film uniform and reliably recover the recovered solution. However, when the front end portion 72a is inclined, the liquid film of the recovered solution is not uniform, and the recovered solution sometimes remains on the floor surface.

  Furthermore, since the supply and recovery of the recovered solution are performed through the supply / discharge groove 73a of the supply / discharge liquid case 73 provided outside the horn portion 72, the recovery of the recovered solution in a portion at a distance from the discharge pipe 83 is not possible. There were cases where it was sufficient.

  Therefore, the present invention has been made in view of the above-described prior art, and reliably adheres to the radioactive substance handling facility, the floor surface and the wall surface of medical facilities, etc. without leaving the surface to be inspected, It is another object of the present invention to provide a deposit inspection sample collecting apparatus for efficiently collecting and an ultrasonic horn for the apparatus.

  The deposit inspection sample recovery apparatus according to the present invention includes a recovery solution supply means for supplying a predetermined amount of a recovery solution to an adhesion that adheres to a surface to be inspected, and ultrasonic waves to the deposit and the recovery solution. Ultrasonic cleaning means for irradiating the deposit from the surface to be inspected by irradiating for a predetermined time, and a discharged liquid collecting means for collecting the discharged liquid in which the deposit and the collected solution are mixed. In the deposit inspection sample collecting apparatus, the ultrasonic cleaning means includes an ultrasonic transducer unit for generating the ultrasonic wave, an ultrasonic oscillation control unit that oscillates the ultrasonic transducer unit under a predetermined condition, and A supply and discharge unit for supplying and discharging the recovered solution at the center of the lower end surface of the horn unit, the horn unit being provided at the tip of the ultrasonic transducer unit and propagating the waves of the ultrasonic transducer unit. One or more holes Only, the lower end surface of the horn portion, the inclination angle theta is 0 ° with respect to the inspection target surface <theta inclined surface of <10 ° is formed in a tapered shape centered on the center,
In addition, one or a plurality of groove portions that are cut out in a curved line and / or linear shape from the center of the lower end surface toward the outer periphery are provided, and a cylindrical guide having an upper surface and a lower surface opened on the outer periphery of the horn portion. A member is provided so as to be separated from the horn part by a predetermined distance and to wrap the horn part.

  In addition, the deposit inspection sample recovery apparatus according to the present invention includes a recovery solution supply means for supplying a predetermined amount of a recovery solution to the deposit attached to the surface to be inspected, and the deposit and the recovery solution. An ultrasonic cleaning means for irradiating a sound wave for a predetermined time to separate the deposit from the surface to be inspected, and a discharged liquid collecting means for collecting the discharged liquid in which the deposit and the collected solution are mixed. In the attached matter inspection sample recovery apparatus, the ultrasonic cleaning means includes an ultrasonic transducer unit for generating the ultrasonic wave, and an ultrasonic oscillation control for causing the ultrasonic transducer unit to oscillate under a predetermined condition. And a horn unit that is provided at the tip of the ultrasonic transducer unit and propagates the waves of the ultrasonic transducer unit, and supplies and discharges the recovered solution at the center of the lower end surface of the horn unit. Cum discharge hole A plurality of lower end surfaces of the horn portion are formed such that an inclined surface with an inclination angle θ of 0 ° <θ <10 ° with respect to the surface to be inspected is formed in a tapered shape centered on the center, and formed in a spiral shape, On the outer periphery of the horn portion, a cylindrical guide member having an open upper surface and a lower surface is provided so as to be separated from the horn portion by a predetermined distance and to wrap the horn portion.

  The ultrasonic horn according to the present invention is an ultrasonic horn for a deposit inspection sample collecting device for collecting deposits adhering to a surface to be inspected, and a recovery solution is placed at the center of the lower end surface of the horn. One or a plurality of supply / discharge holes for supplying and discharging are provided, and the lower end surface of the horn is formed in a tapered shape with an inclined angle θ of 0 ° <θ <10 ° with respect to the surface to be inspected centered at the center. In addition, one or more grooves cut out in a curved line and / or linear shape from the center of the lower end surface toward the outer periphery are provided, and the upper and lower surfaces of the horn are cylindrical and open on the upper and lower surfaces. A guide member is provided so as to be separated from the horn by a predetermined distance and to wrap the horn.

  The ultrasonic horn according to the present invention is an ultrasonic horn for a deposit inspection sample collecting device for collecting deposits adhering to a surface to be inspected, and a recovery solution is placed at the center of the lower end surface of the horn. One or a plurality of supply / discharge holes for supplying and discharging are provided, and the lower end surface of the horn is formed in a tapered shape with an inclined angle θ of 0 ° <θ <10 ° with respect to the surface to be inspected centered at the center. In addition, a cylindrical guide member having an upper surface and a lower surface opened is provided on the outer periphery of the horn so as to be separated from the horn by a predetermined distance and to wrap the horn. .

  Furthermore, the discharged liquid recovery means of the deposit inspection sample recovery apparatus according to the present invention recovers the discharged liquid by performing intermittent suction.

  According to the present invention, the guide member is provided in the outer peripheral portion of the horn portion, the supply / discharge hole is provided in the center of the front end portion of the horn portion, and the supply / discharge hole is configured in a tapered shape as a center. A liquid film of the recovered solution can be formed on the floor surface, and the deposit can be reliably peeled off from the floor surface and mixed with the recovered solution, and the recovered solution can be recovered more reliably from the floor surface.

  DESCRIPTION OF EMBODIMENTS Embodiments of a deposit inspection sample recovery apparatus and an ultrasonic horn for the apparatus according to the present invention will be described below with reference to the drawings. In addition, what has the same structure and function as the conventional deposit | attachment inspection sample collection | recovery apparatus shown in FIG. 7 thru | or FIG. 8 is demonstrated using the same code | symbol.

  FIG. 1 is an overall view showing an outline of an embodiment of the deposit inspection sample collecting apparatus according to the present invention, FIG. 2 is a partially enlarged view of a horn part, a leg part, and a guide member, and FIG. (B) is a left side view of (a), (c) is a bottom view of the horn unit according to (a), and (d) is another embodiment of (c). FIG. 4 is a comparison diagram of a conventional ultrasonic horn part for deposit inspection sample collection device and the ultrasonic horn part according to the present invention, and FIG. 5 is a horn part, a leg part and a guide in use. FIG. 6 is a partially enlarged view of the member, and FIG. 6 is a view showing another embodiment of FIG.

  As apparent from FIGS. 1 and 2, the deposit inspection sample collecting apparatus 1 according to the present invention is provided with a guide member 25 on the outer peripheral portion of the horn portion 22, and is supplied and discharged at the center of the front end portion 22 a of the horn portion 22. By providing the outlet 22b and being tapered around the supply / discharge port 22b, the deposit 56 is surely peeled off from the floor surface 55, which is the surface to be inspected, and mixed with the recovered solution 7, The recovered solution 7 is reliably recovered from the floor surface 55.

  The deposit inspection sample recovery apparatus 1 according to the present invention includes a recovery solution supply means 10 for supplying a recovery solution, an ultrasonic cleaning means for ultrasonically cleaning the liquid, and a discharge liquid tank section (discharge liquid) It comprises a discharged liquid recovery means 30 for recovery to a storage part 32 and a control unit 90 for controlling each means.

  The recovered solution supply means 10 includes a recovered solution tank section 12 and a recovered solution supply section (for example, a supply pump section) 61, which is connected to the supply and discharge conduit 43 via the supply conduit 13, and finally. In addition, the recovered solution 7 is supplied to the ultrasonic cleaning section 70a.

  The discharged liquid recovery means 30 includes a discharged liquid suction part (for example, a discharge pump part) 31 and a discharged liquid tank part 32, and is connected from the ultrasonic cleaning part 20a to the supply / discharge line 43, and further, the discharge pipe. It discharges via the path 33. That is, the supply line 13 and the discharge line 33 are both connected to the supply / discharge line 43 and share the supply / discharge line 43.

  The ultrasonic cleaning means includes an ultrasonic transducer unit 21, an ultrasonic oscillation control unit 74, and a horn unit 22 provided at the tip of the ultrasonic transducer unit 21.

  The wave oscillated by the ultrasonic transducer unit 21 propagates to the horn unit 22, and the ultrasonic wave is applied to the deposit 56 from the front end 22 a of the horn unit 22, and the strong dirt is peeled and washed. That is, the deposit 56 is separated from the floor surface 55 and mixed with the recovered solution 7. In addition, the ultrasonic oscillation control unit 74 can adjust the amplitude of the ultrasonic wave.

  The front end portion 22a, which is the lower end surface of the horn portion 22, is provided at a position where the amplitude of the ultrasonic wave oscillated in the ultrasonic transducer portion 21 is maximum, that is, a position where the antinode of the ultrasonic wave hits. As can be seen from the above, a supply / discharge hole 22b connected to the supply / discharge line 43 is provided at the center thereof. The supply / discharge port hole 22b is connected to the supply / discharge line 43 to supply the recovered solution 7 to the floor surface 55 and recover the recovered solution 7 from the floor surface 55. Since the supply / discharge hole 22b is provided at the center of the front end portion 22b of the horn, when the recovered solution 7 is supplied to form a liquid film, the liquid film is formed in a circular shape around the supply / discharge hole 22b. It is possible to minimize the change in the liquid film of the recovered solution 7 that changes depending on the surface tension of the recovered solution 7, the state of the floor surface 55, the shape (angle) of the front end 22a of the horn, and the like. It is possible to form the liquid film of the recovered solution 7 in a stable shape. Further, when the recovered solution 7 is recovered, the recovered solution 7 is discharged from the supply / discharge hole 22b that serves both as the supply and discharge of the recovered solution 7, so that the recovered solution 7 is recovered in a flow opposite to the supply, and optimal recovery becomes possible.

  Further, the supply / discharge hole 22b provided at the center of the front end portion 22a of the horn is not limited to a single one, and a plurality of the recovery solutions 7 (cleaning liquids) are provided on the floor surface by providing a plurality near the center of the front end portion 22a. In this case, a plurality of supply / discharge lines 43 are provided according to the type of the recovered solution. Further, even if there is only one kind of the recovered solution 7, a plurality of supply / discharge holes 22b are provided by branching the supply / discharge holes 22b inside the horn part 22 or the like. By facing the outer periphery of the horn part 22 and the like, it is possible to increase the recovery solution 7 in the outer peripheral direction and the reliability of the recovery.

As is clear from FIGS. 2 and 3, a tapered inclined surface is provided around the center of the horn portion 22 (supply / discharge port 22 b). The inclination angle Y (see FIG. 3) is preferably in the range of 0 ° < Y <10 ° with respect to the floor surface 55. By providing a tapered inclined surface centered on the center of the horn portion 22, formation of a stable liquid film when the recovered solution 7 is supplied, and reliable attachment of the deposit 56 from the floor surface 55 during ultrasonic cleaning are achieved. The detachment and the reliable discharge at the time of discharging the recovered solution 7 are performed.

That is, as shown in FIG. 4, in the case where the parallel relationship of the front end portion 22a of the horn with respect to the floor surface 55 is disturbed, when a tapered inclined surface is provided around the center of the horn portion 22. The maximum distance from the floor surface 55 to the front end 22a of the horn is halved compared to the case where the front end surface 22a of the horn has a flat shape as in the prior art. Therefore, the recovered solution 7 can be uniformly and stably supplied, and the deposit 56 can be reliably peeled off and the recovered solution 7 can be reliably recovered by improving the cleaning efficiency. As shown in FIG. 4, when the diameter of the horn portion 22 is 2D, the maximum distance of the horn front end portion 22a with respect to the floor surface 55 is X, and the inclination angle of the horn front end portion 22a with respect to the floor surface 55 is A, the following relationship is established. It holds.
In the case of an inclined horn end face X = Dsin (A)
In case of planar horn end face X = 2Dsin (A)
Therefore, when a tapered inclined surface is provided with the center of the horn portion 22 as the center, the maximum distance X from the floor surface 55 to the front end portion 22a of the horn is larger than in the case of a planar shape as in the prior art. Thus, the collection container 7 can be supplied, the deposit 56 can be peeled off, and the collection solution 7 can be collected.

  When the recovered solution 7 is sucked / recovered from the supply / discharge hole 22b at the center of the horn, the recovered solution 7 is sucked into the horn portion 22 as the suction / recovery proceeds at the front end 22a of the horn. Although the amount of the recovered solution 7 between the front end surface 22a of the horn and the floor surface 55 is reduced, the smaller the distance from the floor surface 55 is, the higher the function of sucking the recovered solution is. By providing a tapered inclined surface with the center at the center, suction and recovery can be performed in an optimal situation.

  Further, as shown in FIG. 3C, the horn portion 22 is provided with a groove portion 22c cut out in a curved shape from the center (supply / discharge port 22b) toward the outer periphery at the front end portion 22a. The groove 22c is provided to prevent the recovered solution 7 from remaining on the floor surface 55 when the recovered solution 7 is recovered. If the wind speed and the air volume become constant and stable at the time of recovery of the recovered solution 7, depending on the surface tension of the recovered solution 7, the state of the floor surface 55, the shape (angle) of the front end 22a of the horn, etc. It is assumed that only the recovered solution 7 is recovered and the other recovered solution 7 is not recovered, but the presence of the groove 22c activates the gas flow between the floor surface 55 and the front end 22a of the horn, That is, turbulence (change in wind speed and air volume) is generated in the gas flow, and the recovered solution 7 is reliably recovered. Therefore, if the gas flow between the floor surface 55 and the front end portion 22a of the horn can be activated in order to reliably recover the recovered solution 7, the shape of the groove portion 22c may be an appropriate shape such as a straight line. Further, as shown in FIG. 3D, the shape of the front end 22a of the horn itself may be formed in a spiral shape.

  As shown in FIGS. 1, 2, and 5, a cylindrical guide member 25 having a top surface and a bottom surface that are open is separated from the horn portion 22 by a predetermined distance on the outer periphery of the horn portion 22. It is provided to wrap. The ultrasonic transducer unit 21, the horn unit 22, and the guide member 25 are integrally fixed to form an ultrasonic cleaning unit 20a. The guide member 25 is connected to the flange portion 22d of the horn portion 22 by a connecting member 25b via a bolt or the like (not shown). Since the connecting member 25b is in contact with the horn portion 22, the connecting member 25b is connected to the flange portion 22d via a silicon packing or the like (not shown) in order to minimize the influence on the ultrasonic vibration. Further, the lower end portion 25c of the guide member 25 is provided so as to be positioned below the front end portion 22a of the horn portion 22, and the lower end portion 25c of the guide member 25 is in close contact with the floor surface 55. The guide member 25 is biased by using a flexible resin, a spring or the like for the connection member 25b. Further, since the lower end portion 25c of the guide member 25 only needs to be completely in close contact with the floor surface 55, it is possible to attach a flexible member such as rubber to the lower end portion 25c.

  Due to the presence of the guide member 25 whose upper surface is opened and whose lower end portion 25 c is in close contact with the floor surface 55, a wind flow as shown by an arrow in FIG. That is, depending on the surface tension of the recovered solution 7 and the state of the floor surface 55, there may occur a case where the recovered solution 7 cannot be sufficiently recovered by suction / recovery with constant air blowing. A flow of wind is generated to push the recovered solution 7 away from the center of the discharge hole 22b toward the center of the front end 22a of the horn, and the recovered solution 7 can be reliably recovered. In particular, the air flow from the guide member 25 toward the floor surface 55 collides with the floor surface 55 to cause a change in air flow like a vortex, greatly moving the recovered solution 7 in the vicinity thereof, and the front end 22a of the horn. The flow of the recovered solution 7 is changed in the direction of suction / recovery by flowing the recovered solution 7 in a stable state by causing a change in air flow. This makes it possible to perform reliable suction and recovery. In addition, by providing the guide member 25 on the outer periphery of the horn portion 22, the vicinity of the floor surface 55 can be reduced with respect to the recovered solution 7 supplied from the supply and discharge hole 22b provided at the center of the front end portion 22a of the horn. It can be prevented from being affected by the flowing breeze, and reliable work is possible.

  Further, as shown in FIG. 6, the inner end portion 25 a of the guide member 25 is configured to reduce its diameter downward, thereby causing a further change in air blowing and performing a reliable recovery of the recovered solution 7. Can do. That is, by decreasing the distance between the outer surface of the horn portion 22 and the inner end portion 25a of the guide member 25 as it goes downward, the wind speed can be further strengthened, the recovered solution 7 is moved greatly, It will be directed to the central portion (supply / discharge hole 22b) of the front end portion 22a, and reliable suction and recovery are possible.

  Further, as shown in FIGS. 1 and 2, a leg portion 45 for determining the position (distance) between the front end portion 22a of the horn and the floor surface 55 is provided on the outer side of the guide member 25. The leg portion 45 is fixed to the flange portion 22d of the horn portion 22 via a bolt or the like (not shown). Similarly to the guide member 25, the leg portion 45 is fixed to the flange portion 22d via a silicon packing or the like (not shown) in order to minimize the influence on the ultrasonic vibration. The leg portion 45 is connected to the front end 22a of the horn and the floor in order to supply the recovered solution 7 to the floor surface 55, peel off the deposit 56 from the floor surface 55, and reliably recover the recovered solution 7 from the floor surface 55. The position (distance) of the surface 55 is determined, and the position of the grounding portion 45a at the lower end of the leg portion 45 is set so that the distance between the front end portion 22a of the horn and the floor surface 55 is 0.5 mm to 0.7 mm. Adjust and use.

  The control unit 90 controls the ultrasonic oscillation control unit 74, the collected solution supply unit 11, the discharged liquid suction unit 31 and the like, and automatically and smoothly performs the cleaning and collecting operation of the deposit 56 attached to the floor surface 55. I can do it.

Next, a method for using the deposit inspection sample recovery apparatus 1 will be described.
The ultrasonic cleaning unit 20a is moved to the upper part of the floor surface 55 to which the deposit 56 is adhered, and the deposit 56 to be inspected is surrounded below the ultrasonic cleaning unit 20a, and the floor surface 55 and the lower end of the guide member 25 25c.

  The cleaning / recovery start switch of the control unit 90 is pressed to start the cleaning / recovery operation. The control unit 90 supplies the recovered solution 7 to the recovered solution supply unit 11 through the supply line 13, the supply / discharge line 43, and the horn supply / discharge hole 22 b toward the enclosed deposit 56. Erupt. Next, the control unit 90 irradiates the ultrasonic cleaning unit 20a with ultrasonic waves for a predetermined time (for example, 5 seconds). The deposit 56 is peeled off from the floor surface 55 and the recovered solution 7 and the deposit 56 are mixed to become a discharged liquid. The control unit 90 causes the discharged liquid suction unit 31 to suck and discharge the recovered solution 7 through the supply / discharge hole 22 b of the horn, the supply / discharge line 43, and the discharge line 33. The discharged liquid sucked and discharged is stored in the discharged liquid tank section 32. The stored discharged liquid is collected, and the intensity of radiation is measured by adding a scintillator (reagent) or the like.

  Further, when the collected liquid 7 is sucked and discharged to the discharged liquid suction part 31, it is possible to increase the movement of the collected solution 7 by performing not only continuous suction but also intermittent suction, It is also possible to recover the recovery solution 7 more reliably.

  In the vicinity of the discharged liquid tank section 32, a discharged liquid analyzing means for analyzing the components of the discharged liquid may be provided. For example, a GM survey meter can be installed to measure the intensity of radiation and analyze the contamination status. The analysis result may be accumulated and recorded as a sample together with the date and time.

  The discharged liquid analysis means is a well-known technique in the field of handling radioactive substances, and will not be described in detail here.

  The ultrasonic cleaning unit 20a may be manually moved by an operator wearing protective clothing, but may be automatically moved by a conveying means such as a robot or a moving means. It is even better if remote operation is possible from a safe place.

  As shown in FIG. 1, the deposit inspection sample collecting apparatus 1 includes an ultrasonic wave transmission control unit 74, a control unit 90, and a discharged liquid suction unit 31 mounted on a casing with casters 47, and an ultrasonic cleaning unit. Since 20a, the collection | recovery solution supply part 11, and the discharge | emission liquid tank part 32 are united, it is easy to carry and workability | operativity is good. Further, the deposit inspection sample collecting apparatus 1 can be used independently from an external power source or the like by providing a battery in the housing.

1 is an overall view showing an outline of an embodiment of a deposit inspection sample recovery apparatus according to the present invention. FIG. 2 is a partially enlarged view of the horn part, the leg part, and the guide member. 3 (a) is a front view of an ultrasonic horn unit according to the present invention, (b) is a left side view of (a), (c) is a bottom view of the horn unit according to (a), and (d) is It is a figure which shows the other Example of (c). It is a comparison figure at the time of the inclination of the conventional ultrasonic horn part for deposit inspection sample collection | recovery apparatuses, and the ultrasonic horn part by this invention. It is the elements on larger scale of a horn part at the time of use, a leg part, and a guide member. It is a figure which shows the other Example of FIG. It is whole explanatory drawing which shows the outline | summary of the conventional deposit | attachment inspection sample collection | recovery apparatus shown in patent document 1. FIG. It is a figure which shows the ultrasonic cleaning part of the deposit | attachment test | inspection sample collection | recovery apparatus shown in FIG. FIG. 9 is a bottom view of the ultrasonic cleaning unit shown in FIG. 8.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 ... Deposit inspection sample collection device 7 ... Collection solution 10 ... Collection solution supply means 11 ... Collection solution supply part 12 ... Collection solution tank part (collection solution storage part)
13 ... Supply pipe line 20a ... Ultrasonic cleaning part 21 ... Ultrasonic vibrator part 22 ... Horn part 22a ... Front end part 22b ... Supply / discharge hole 22b1 ... Connection hole 22c ... groove 22d ... flange 25 ... guide member 25a ... inner end 25b ... connecting member 25c ... lower end 30 ... discharged liquid recovery means 31 ... discharged liquid Suction part 32 ... discharged liquid tank part (discharged liquid storage part)
33 ... Drain line 43 ... Supply and discharge line 45 ... Leg part 45a ... Grounding part 47 ... Caster 51 ... Adhesive inspection sample collection device 55 ... Floor surface 56 ... Deposits 60 ... Recovery solution supply means 61 ... Recovery solution supply part 62 ... Recovery solution tank part (recovery solution storage part)
63 ... Supply pipe 70 ... Ultrasonic cleaning means 70a ... Ultrasonic cleaning unit 71 ... Ultrasonic transducer 72 ... Horn 72a ... Front end 73 ... Supply / discharge Liquid case 74 ... Ultrasonic oscillation control part 75 ... Packing 80 ... Drained liquid recovery means 81 ... Drained liquid suction part 82 ... Drained liquid tank part (discharged liquid storage part)
83 ... Drain line 90 ... Control unit

Claims (6)

A recovery solution supply means for supplying a predetermined amount of a recovery solution to the deposit adhered to the surface to be inspected, and the deposit and the recovery solution are irradiated with ultrasonic waves for a predetermined time to inspect the deposit. In the deposit inspection sample recovery apparatus comprising an ultrasonic cleaning means for peeling from the target surface , and a discharge liquid recovery means for recovering a discharge liquid in which the deposit and the recovery solution are mixed,
The ultrasonic cleaning means includes an ultrasonic transducer unit for generating the ultrasonic wave, an ultrasonic oscillation control unit that oscillates the ultrasonic transducer unit under a predetermined condition, and a tip of the ultrasonic transducer unit A horn unit that propagates the wave of the ultrasonic transducer unit,
Provide one or more supply and discharge holes for supplying and discharging the recovered solution at the center of the lower end surface of the horn part,
The lower end surface of the horn portion is formed in a tapered shape with an inclination angle θ with respect to the surface to be inspected being 0 ° <θ <10 ° centered at the center,
In addition, a single or a plurality of grooves cut into a curved line and / or a straight line from the center of the lower end surface toward the outer periphery are provided,
An outer periphery of the horn portion is provided with a cylindrical guide member whose upper surface and lower surface are open so as to be separated from the horn portion by a predetermined distance and to wrap the horn portion. Inspection sample collection device. The deposit inspection sample recovery apparatus according to claim 1 , wherein the discharge liquid recovery means recovers the discharge liquid by intermittently performing suction. A recovery solution supply means for supplying a predetermined amount of a recovery solution to the deposit adhered to the surface to be inspected, and the deposit and the recovery solution are irradiated with ultrasonic waves for a predetermined time to inspect the deposit. In the deposit inspection sample recovery apparatus comprising an ultrasonic cleaning means for peeling from the target surface , and a discharge liquid recovery means for recovering a discharge liquid in which the deposit and the recovery solution are mixed,
The ultrasonic cleaning means includes an ultrasonic transducer unit for generating the ultrasonic wave, an ultrasonic oscillation control unit that oscillates the ultrasonic transducer unit under a predetermined condition, and a tip of the ultrasonic transducer unit A horn unit that propagates the wave of the ultrasonic transducer unit,
Provide one or more supply and discharge holes for supplying and discharging the recovered solution at the center of the lower end surface of the horn part,
The lower end surface of the horn portion is formed in a tapered shape with an inclination angle θ with respect to the surface to be inspected being 0 ° <θ <10 ° centered at the center,
And formed in a spiral shape,
An outer periphery of the horn portion is provided with a cylindrical guide member whose upper surface and lower surface are open so as to be separated from the horn portion by a predetermined distance and to wrap the horn portion. Inspection sample collection device. The deposit inspection sample recovery apparatus according to claim 3, wherein the discharge liquid recovery means recovers the discharge liquid by intermittently suctioning. A deposit inspection ultrasonic horn sample collection device for collecting deposits adhering to the inspection target surface,
Provide one or more supply and discharge holes to supply and discharge the recovered solution at the center of the lower end surface of the horn,
The lower end surface of the horn is formed in a tapered shape with an inclination angle θ with respect to the surface to be inspected being 0 ° <θ <10 ° centered at the center,
In addition, a single or a plurality of grooves cut into a curved line and / or a straight line from the center of the lower end surface toward the outer periphery are provided,
An ultrasonic horn characterized in that a cylindrical guide member having an open upper surface and a lower surface is provided on the outer periphery of the horn so as to be separated from the horn by a predetermined distance and to wrap the horn. A deposit inspection ultrasonic horn sample collection device for collecting deposits adhering to the inspection target surface,
Provide one or more supply and discharge holes to supply and discharge the recovered solution at the center of the lower end surface of the horn,
The lower end surface of the horn is formed in a tapered shape with an inclination angle θ with respect to the surface to be inspected being 0 ° <θ <10 ° centered at the center,
And formed in a spiral shape,
An ultrasonic horn characterized in that a cylindrical guide member having an open upper surface and a lower surface is provided on the outer periphery of the horn so as to be separated from the horn by a predetermined distance and to wrap the horn.

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