JP6719926B2 - Mounting components, detectors and measuring devices - Google Patents

Description

The present invention relates to a mounting component configured to be mounted on a sensor, a detection device including the mounting component, and a measuring device including the detection device.

As this type of detection device, a current detection device disclosed by the applicant in Patent Document 1 below is known. The current detection device includes an annular magnetic core and is configured to detect a current flowing through the electric wire to be measured inserted through the magnetic core. In this case, when the current flowing through the wire to be measured is weak, the wire to be measured is generally wound around the magnetic core, and the wire to be measured is inserted multiple times inside the magnetic core. Is divided by the number of insertions (number of windings), it is possible to reliably detect such a weak current.

JP 2012-247191 A (page 5, FIG. 1)

However, the above current detection device has the following problems to be improved. That is, when detecting a weak current flowing through the electric wire to be measured using this current detecting device, as described above, the electric wire to be measured is wound around the magnetic core and the electric wire to be measured is inserted inside the magnetic core a plurality of times. .. In this case, since the detection sensitivity varies depending on the position of the electric wire to be measured inside the magnetic core, it is preferable to wind the electric wire to be measured so that the electric wires to be measured are regularly arranged inside the magnetic core. However, it is difficult to wind the electric wires to be measured around the annular magnetic core in such an order, and the electric wires to be measured may be concentrated in one place or the electric wires to be measured may be disturbed. Therefore, in this current detection device, there is a possibility that the detection accuracy of the current may be deteriorated due to concentration in one place of the electric wire to be measured or winding disorder, and improvement of this point is desired.

The present invention has been made in view of the problems to be improved, and a main object of the present invention is to provide a mounting component, a detection device, and a measurement device that can improve the detection accuracy of the detected amount of an electric wire.

In order to achieve the above object, in the mounting component according to claim 1, an opening portion that passes through the annular core is formed in the accommodating portion in which the annular core is accommodated , and the mounting portion is inserted a plurality of times into the accommodating portion. a instrumentation Chakubuhin configured to be mounted to a sensor for detecting the detected amount of times electric wires, provided with the inserted tubular insertion member into the opening in the attached state to the sensor, On the inner peripheral surface of the cylindrical insertion member, positioning portions are arranged along the circumferential direction of the inner peripheral surface at one end and the other end in the axial direction of the cylindrical insertion member. A plurality of the respective positioning portions are configured to be able to fit the insertion portions of the electric wires, which are inserted into the tubular insertion member when the electric wires are inserted into the openings, one by one, and Then, the inserted portion is positioned.
The mounting component according to a second aspect is the mounting component according to the first aspect, wherein each of the positioning portions is formed so as to be continuous from the one end portion to the other end portion.

Further, the mounting component according to claim 3, wherein, in the mounting component according to claim 1 or 2, wherein the outer peripheral portion positioned to face the side surface of the accommodating portion in the attached state to the sensor, the tubular in the mounted state The one end portion of the insertion member extending from the one end portion to the outer peripheral portion in a state of facing the one front surface of the accommodation portion, and the other end of the tubular insertion member in the mounted state. From the part to the outer peripheral part, the other front part of the accommodation part extending in a state of being opposed to the other front part of the accommodation part , the cover part for covering the accommodation part is provided, and the one front part and the the other front part, a guide part so fitted the electric wire wound around the adjacent portions to each other of the wire guide so as to be separated from each other toward the outer periphery of the cover portion is formed in the housing part There is.

Further, a measuring device according to a fourth aspect is the mounting component according to any one of the first to third aspects, in which a plurality of positioning portions are formed along a circumferential direction of an outer peripheral surface and the cylindrical insertion member is provided. insertable includes a pillar-shaped insert member, the respective positioning of the tubular insertion member to the columnar said insertion member of said columnar and the positioning portion of the tubular insertion member in a state in which the insertion member is inserted The parts are configured to face each other.

A detection device according to a fifth aspect includes the mounting component according to any one of the first to fourth aspects and the sensor.

A measuring device according to a sixth aspect includes the detecting device according to the fifth aspect, and a measuring unit that measures the measured amount based on the detected amount detected by the sensor of the detecting device. ..

According to the mounting component according to claim 1 or 2, the detecting device according to claim 5, or the measuring device according to claim 6, a cylindrical insertion in which a plurality of positioning portions are formed along the circumferential direction of the inner peripheral surface. by comprise part material to constitute a mounting part, the opening of the sensor (cylindrical insertion member) into the insertion has been inserted portion of the electric wire or cause irregular winding in the insertion portion or concentrated in one place Instead, the insertion portion can be positioned in an aligned state by the positioning portion of the cylindrical insertion member. Therefore, according to the mounting component, the detection device, and the measurement device, it is possible to reliably prevent the detection accuracy from deteriorating due to the concentration of the electric wire at one place or the winding disorder, and it is possible to sufficiently improve the current detection accuracy. ..
Further, in the configuration in which the positioning portion is formed only on the axial end portion of the tubular insertion member, the positioning portion is formed when the thinning winding is performed to wind the electric wire a number of times smaller than the number of positioning portions. Since the electric wire can be easily crossed at the non-wound portion, this thinning winding can be easily performed.

Further, the mounting component according to claim 3, wherein, according to the detecting device and the measuring device according to claim 6, wherein according to claim 5, comprising a tubular insertion member, and a cover portion for covering the housing section of the sensor, the wire By forming a guide part in the cover part that fits and guides the adjacent parts of the electric wire so that they are separated from each other as they go toward the outer peripheral part of the cover part, the insertion of the electric wire wound in the accommodating part in which the mounting component is mounted The parts other than the parts (non-insertion parts) can be evenly distributed without concentrating in one place or causing winding disorder. Therefore, according to the mounting component, the detection device, and the measurement device, it is possible to reliably prevent the detection accuracy from deteriorating due to concentration of the non-inserted portion of the electric wire in one place or winding disorder, and further improve the current detection accuracy. be able to.

According to the mounting component according to claim 4, the detection device according to claim 5, and the measurement device according to claim 6, a cylindrical insertion member and a columnar insertion member that can be inserted into the cylindrical insertion member. And a cylindrical insertion member such that each positioning portion of the cylindrical insertion member and each positioning portion of the columnar insertion member face each other when the cylindrical insertion member is inserted into the cylindrical insertion member. Since the columnar insertion member is configured, the insertion portion of the electric wire can be sandwiched by each positioning portion, so that the insertion portion can be positioned more reliably in an aligned state.

It is a block diagram which shows the structure of the measuring device 1. It is a block diagram which shows the structure of the detection apparatus 2. It is a perspective view of the 1st member 31. It is a perspective view of the 2nd member 32. FIG. It is a perspective view showing a state where the 1st member 31 was attached to sensor 11. It is a perspective view showing the state where electric wire 200 was wound around the 1st member 31. FIG. 6 is a perspective view showing a state in which a second member 32 is inserted in the mounting component 12. It is a perspective view showing the state where the electric wire 200 was thinned and wound around the mounting component 12.

Embodiments of a mounting component, a detection device, and a measurement device will be described below with reference to the accompanying drawings.

First, the configuration of the measuring apparatus 1 as an example of the measuring apparatus will be described with reference to the drawings. The measurement device 1 shown in FIG. 1 includes a detection device 2, an operation unit 3, a display unit 4, and a processing unit 5, and can measure a current (an example of a measured amount) flowing in an electric wire (for example, the electric wire 200 shown in FIG. 7). Is configured.

The detection device 2 includes a sensor 11 and a mounting component 12, as shown in FIG.

As shown in FIG. 2, the sensor 11 includes a non-opening/closing (non-clamping) main body portion 21 and a cable 22. In this case, the main body 21 accommodates an annular core and a magnetic detection element (neither of which is shown), and an opening 21a (a part of the main body 21 which will be described later ) that passes through the center of the core. 21b is formed with an opening penetrating from one front surface 23 to the other front surface 24 . In this sensor 11, the magnetic detection element detects a magnetic field (amount to be detected) generated by a current flowing through the electric wire 200 inserted through the opening 21 a of the main body 21 and outputs a detection signal via the cable 22. The part indicated by reference numeral 25 in FIGS. 2, 5 and 6 is the side surface 25 of the main body portion 21 (also the side surface of the accommodation portion 21b).

As shown in FIG. 2, the mounting component 12 includes a first member 31 and a second member 32, and is configured to be mounted on the main body portion 21 of the sensor 11.

As shown in FIG. 3, the first member 31 includes half bodies 31a and 31b, and abutting ends of the side walls 131a and 131b forming the half bodies 31a and 31b are brought into contact with each other. In the state, an accommodation space for accommodating a part of the main body 21 of the sensor 11 (accommodation portion 21b accommodating the annular core and the magnetic detection element: see FIG. 2) is formed. Further, as shown in FIG. 3, the half bodies 31a and 31b form the tubular member 41 and the cover portion 42 in a state where the ends of the side walls 131a and 131b are in contact with each other.

The tubular member 41 corresponds to a “cylindrical insertion member” and has a tubular shape that can be inserted into the opening 21 a (see FIG. 2) of the main body 21 of the sensor 11. Further, as shown in FIG. 3, a plurality of (10 as an example) groove portions 51 are arranged on the inner peripheral surface 41a of the tubular member 41 at equal intervals along the circumferential direction A of the inner peripheral surface 41a. Is formed on the inner peripheral surface 41a. In this case, each groove 51 is formed so as to be continuous from one end to the other end in the axial direction (length direction) of the tubular member 41. Further, the groove portion 51 corresponds to a “positioning portion”, and the insertion portion 201 (see FIG. 6) of the electric wire 200 inserted into the tubular member 41 (that is, inserted into the opening portion 21a of the sensor 11) is fitted therein. And has a function of positioning the insertion portions 201 in a state of being aligned at equal intervals.

As shown in FIG. 5, the cover portion 42 is configured to cover the housing portion 21b of the main body portion 21 of the sensor 11 (at least a part of the sensor 11: see FIG. 2). Further, as shown in FIGS. 2, 3, 5 and 6, the cover portion 42 of the housing portion 21b is in a mounted state (state shown in FIGS. 5 and 6) to the sensor 11 (specifically, the housing portion 21b). The outer peripheral portion 42a located opposite to the side surface 25, in this mounted state, from one end portion (end portion on the front side in each figure) of the tubular member 41 to the outer peripheral portion 42a on the one front surface 23 of the housing portion 21b. One front surface portion 42b extending in a facing state, and the other front surface of the housing portion 21b from the other end portion (the rear end portion in each figure) of the tubular member 41 to the outer peripheral portion 42a in this mounted state. It is configured to have the other front face portion 42c extending in a state of facing 24. Further, as shown in FIG. 3, in the cover portion 42 (specifically, on the surfaces of the front portions 42b and 42c of the cover portion 42) , from the groove portions 51 of the tubular member 41 to the outer periphery of the cover portion 42. A plurality of groove portions 52 (the same number as the groove portions 51 of the tubular member 41, which is ten in this example) extending radially toward the portion 42a are formed. The groove portion 52 corresponds to a “guide portion”, and when the electric wire 200 is wound around the first member 31 (when the first member 31 is attached to the sensor 11, the electric wire 200 is wound around the sensor 11). The electric wire 200 is fitted into the electric wire 200 so that adjacent portions of the electric wire 200 other than the insertion portion 201 (hereinafter also referred to as "non-insertion portion 202": see FIG. 6) are separated from each other toward the outer peripheral portion 42a of the cover portion 42. It has the function of guiding to.

The second member 32 corresponds to a “columnar insertion member”, and as shown in FIG. 4, can be inserted into the tubular member 41 of the first member 31 (that is, also in the opening 21a of the main body 21 of the sensor 11). It can be inserted). Further, as shown in the figure, on the outer peripheral surface 32a of the second member 32, a plurality of (the same number as the groove portions 51 of the tubular member 41, 10 in this example) groove portions 53 are provided on the outer peripheral surface 32a. Are formed on the outer peripheral surface 32a so as to be arranged at equal intervals along the circumferential direction B. In this case, each groove 53 is formed so as to be continuous from one end to the other end in the axial direction (length direction) of the second member 32. Further, the groove portion 53 corresponds to a “positioning portion”, and similarly to the groove portion 51 of the tubular member 41, the insertion of the electric wire 200 inserted into the opening 21 a of the sensor 11 (inserted into the tubular member 41). It has a function of fitting the portions 201 and positioning the insertion portions 201 in a state of being aligned at equal intervals. Further, the second member 32 is configured such that the groove portions 51 and the groove portions 53 of the tubular member 41 face each other in the state of being inserted into the tubular member 41.

The operation unit 3 is configured to include operation buttons (operation keys), and outputs an operation signal to the processing unit 5 in response to an operation on the operation button. The display unit 4 displays the measured value of the current measured by the processing unit 5 and the like under the control of the processing unit 5. The processing unit 5 functions as a “measuring unit”, and based on the detected amount (magnetic field in this example) detected by the detection device 2, the measured amount (current flowing through the electric wire 200 in this example in the electric wire 200) for the electric wire 200. ) Is measured.

Next, a method of measuring the current flowing through the electric wire 200 using the measuring device 1 will be described with reference to the drawings.

When measuring a weak current flowing through the electric wire 200 using the measuring device 1, the electric wire 200 is wound around the sensor 11 of the detecting device 2 a plurality of times, and the measurement is performed in that state. Specifically, as shown in FIG. 5, the first member 31 of the mounting component 12 is mounted on the main body portion 21 of the sensor 11 of the detection device 2. In this case, the end portions of the side walls 131a of the half body 31a and the side walls 131b of the half body 31b are brought into contact with each other by sandwiching the housing portion 21b of the main body portion 21 with the half bodies 31a and 31b forming the first member 31. Contact. As a result, the accommodation portion 21b of the main body portion 21 is accommodated in the accommodation space formed by the half bodies 31a and 31b. Further, the half bodies 31a and 31b form a tubular member 41 and a cover portion 42.

Then, the electric wire 200 is wound around the main body portion 21 of the sensor 11 to which the first member 31 is attached. In this case, as shown in FIG. 6, the electric wire 200 is inserted through the tubular member 41 (the opening 21a of the sensor 11) of the first member 31, and the groove portion 51 formed in the tubular member 41 and the first member. The operation of fitting the electric wire 200 into the groove portion 52 formed in the cover portion 42 of 31 is repeated.

In this case, in this mounting component 12, since the ten groove portions 51 are formed in the tubular member 41 and the groove portions 52 are formed so as to be continuous with each groove portion 51, the first member 31 (the main body of the sensor 11). The electric wire 200 is wound around the portion 21) 10 times (10 turns). As a result, as shown in FIG. 6, the insertion portion 201 of the electric wire 200 inserted into the tubular member 41 is positioned in the groove portion 51 of the tubular member 41 in an aligned state. Further, a state in which portions of the electric wire 200, which are located outside the tubular member 41 and are adjacent to each other, are separated from each other by the groove portion 52 of the cover portion 42 toward the outer peripheral portion 42a of the cover portion 42 (a state in which they extend radially). Positioned at. As described above, the winding of the electric wire 200 around the main body portion 21 of the sensor 11 is completed.

Then, as shown in FIG. 7, the groove member 51 formed in the tubular member 41 and the groove portion 53 formed in the second member 32 face each other so that the tubular member 41 has the second member. Insert 32. At this time, as shown in the figure, as a result of the insertion portion 201 of the electric wire 200 being sandwiched by the groove portion 51 of the tubular member 41 and the groove portion 53 of the second member 32, the insertion portions 201 are aligned at equal intervals. Positioning is more reliable.

Next, the cable 22 of the sensor 11 is connected to an input terminal (not shown), and then the operation unit 3 is operated to instruct measurement of current. At this time, the sensor 11 detects the magnetic field as the detected amount generated by the current flowing through the electric wire 200 and outputs a detection signal. In this case, as described above, since the insertion portions 201 of the electric wire 200 inserted through the opening portion 21a (the tubular member 41) of the sensor 11 are positioned in a state of being aligned at equal intervals, the electric wire 200 is moved to one place. The detection accuracy is prevented from lowering due to the concentration of the magnetic field and the winding disorder, and the magnetic field (detection amount) is detected with high accuracy.

Next, the processing unit 5 measures the current (measured amount) flowing through the electric wire 200 based on the detection signal (the detected amount detected by the detection device 2) output from the sensor 11. Subsequently, the processing unit 5 causes the display unit 4 to display the current value of the measured current. In the measuring device 1, as described above, the magnetic field (measured amount) is detected by the detection device 2 with high accuracy, so that the current (measured amount) based on the detected magnetic field is accurately measured.

As described above, according to the mounting component 12, the detecting device 2, and the measuring device 1, the cylindrical member 41 having the plurality of groove portions 51 formed along the circumferential direction A of the inner peripheral surface 41a, and the outer peripheral surface 32a. Since the mounting component 12 is configured by including the second member 32 in which the plurality of groove portions 53 are formed along the direction B, the insertion portion of the electric wire 200 inserted into the opening portion 21a (cylindrical member 41) of the sensor 11 is inserted. The insertion portion 201 can be reliably positioned in an aligned state by the groove portion 51 of the tubular member 41, without the 201 being concentrated in one place or causing the insertion portion 201 to be disturbed. Therefore, according to the mounting component 12, the detection device 2, and the measurement device 1, the detection accuracy is surely prevented from being lowered due to the concentration of the electric wire 200 at one place or the winding disorder, and the current detection accuracy is sufficiently improved. Can be made In this case, the groove portions 51 are formed at equal intervals along the circumferential direction A of the inner circumferential surface 41a of the tubular member 41, and the groove portions 53 are equally spaced along the circumferential direction B of the outer circumferential surface 32a of the second member 32. By forming the insertion portions 201, the insertion portions 201 can be reliably positioned in a state of being aligned at equal intervals, so that the detection accuracy can be further improved.

Further, according to the mounting component 12, the detection device 2, and the measurement device 1, the tubular member 41 and the cover portion 42 that covers the periphery of the sensor 11 are provided, and the electric wire 200 is fitted so that adjacent portions of the electric wire 200 are adjacent to each other. Since the cover portion 42 is formed with the groove portion 52 (guide portion) that guides them so as to be separated from each other toward the outer peripheral portion 42a of the cover portion 42, a portion other than the insertion portion 201 of the electric wire 200 wound around the mounting component 12 ( The non-insertion portion 202) can be evenly distributed without concentrating in one place or causing winding disorder. Therefore, according to the mounting component 12, the detection device 2, and the measurement device 1, it is possible to reliably prevent the detection accuracy from deteriorating due to the concentration of the non-insertion portion 202 in the electric wire 200 at one place or the winding disturbance, and to detect the current. The accuracy can be further improved.

Further, according to the mounting component 12, the detection device 2, and the measurement device 1, the tubular member 41 and the second member 32 that can be inserted into the tubular member 41 are provided, and the tubular member 41 has the second member 32. By configuring the tubular member 41 and the second member 32 so that the respective groove portions 51 of the tubular member 41 and the respective groove portions 53 of the second member 32 face each other in the inserted state, the respective groove portions 51, 53 Since the insertion portion 201 of the electric wire 200 can be sandwiched, it is possible to more reliably position the insertion portion 201 in an aligned state.

The configurations of the mounting component, the detection device, and the measurement device are not limited to the above configurations. For example, the example in which the cover portion 42 is configured to cover the housing portion 21b of the main body portion 21 in the sensor 11 has been described above, but a cover portion configured to cover other portions of the main body portion 21 other than the housing portion 21b, It is also possible to employ a cover part configured to cover the entire main body part 21.

Further, although the example in which the first member 31 is configured by including the tubular member 41 and the cover portion 42 has been described above, the first member 31 that does not include the cover portion 42 (that is, the first member 31 configured by only the tubular member 41). The member 31) can also be adopted. Moreover, although the example including both the tubular member 41 (cylindrical insertion member) and the second member 32 (columnar insertion member) has been described above, only one of the tubular member 41 and the second member 32 is provided. Also by adopting the configuration provided, the insertion portion 201 of the electric wire 200 inserted into the opening portion 21a (the tubular member 41) of the sensor 11 is concentrated in one place or the insertion portion 201 is disturbed. Without this, the insertion portion 201 can be positioned in an aligned state by the groove portion 51 of the tubular member 41.

Further, regarding an example in which the electric wire 200 is wound 10 times (10 turns) around the mounting component 12 in which the ten groove portions 51 and 52 are formed, that is, an example in which the electric wire 200 is wound the same number of times as the number of the groove portions 51 and 52. As described above, the electric wire 200 can be wound a smaller number of times than the number of the groove portions 51 and 52 (hereinafter, such winding is also referred to as “thinning winding”). As an example, as shown in FIG. 8, the electric wires 200 can be wound around the mounting component 12 only five times by fitting the electric wires 200 into the ten groove portions 51 and 52 every other one.

Here, instead of the cylindrical member 41 and the second member 32 in which the groove portions 51 and 53 are formed so as to be continuous from one end portion to the other end portion in the axial direction, each end portion in the axial direction is replaced with By using the tubular member and the second member (neither of which is shown) in which only the groove portions 51 and 53 are formed, the above-described thinning winding can be easily performed. In this case, when performing thinning winding, it is necessary to replace (cross) the electric wire 200 fitted in one groove 51 of the tubular member 41 with the adjacent groove 51 in the middle of the groove 51. By adopting the tubular member 41 in which the groove portions 51 are formed only at the ends in the axial direction, the electric wire 200 can be easily crossed at the portion where the groove portions 51 are not formed. Therefore, by adopting the tubular member and the second member in which the groove portions 51 and 53 are formed only at each end portion in the axial direction, the thinning winding can be easily performed.

Moreover, although the tubular member 41 having the ten groove portions 51, 52, 53 formed therein, the cover portion 42, and the second member 32 have been described as an example, the number of the groove portions 51, 52, 53 is limited to ten. However, it can be defined as an arbitrary plural number of less than 10 or more than 10.

Further, in the above example, the example in which the main body part 21 is applied to the mounting component 12 mounted on the sensor 11 (see FIG. 2) having a rectangular front view, the sensor 11 is an example, and the shape and It can be applied to the mounting component 12 mounted on another sensor having a different size. Further, instead of the non-openable/closable (non-clamp type) sensor 11, the present invention can be applied to a detection device including a clamp type sensor. In this case, in this configuration, each clamp part is inserted into the mounting part 12 from the open bottom of the mounting part 12 in the state where the electric wire 200 is wound, with each clamp part of the clamp type sensor being opened, Then, each clamp part is closed in the mounting component 12. At this time, the electric wire 200 is surrounded by each clamp portion, and the electric wire 200 is inserted into the opening of the annular body formed by each clamp portion.

Moreover, although the example applied to the detection device 2 that detects the magnetic field as the detected amount has been described above, the present invention can also be applied to a detection device that detects another detected amount. Moreover, although the example applied to the measuring device 1 that measures the current as the measured amount has been described above, the present invention can also be applied to a measuring device that measures another measured amount.

Further, although the example in which the groove portions 51 and 53 as the positioning portions are formed in the tubular member 41 and the second member 32 respectively has been described above, although not shown, the projection portions are formed as the positioning portions instead of the groove portions 51 and 53. A configuration can also be adopted. Further, although the example of forming the groove portion 52 as the guide portion in the cover portion 42 has been described above, although not illustrated, a configuration in which the protrusion portion is formed as the guide portion instead of the groove portion 52 can be adopted.

Further, a groove portion 52 having a shape that extends radially from the groove portion 51 toward the outer peripheral portion 42a of the cover portion 42 so that the adjacent portions of the fitted electric wires 200 are separated from each other toward the outer peripheral portion 42a of the cover portion. Although the example of forming the cover portion 42 on the cover portion 42 has been described above, the shape of the groove portion 52 is not limited to this shape, and the groove portion 52 can be formed in any shape.

DESCRIPTION OF SYMBOLS 1 Measuring device 2 Detecting device 5 Processing part 11 Sensor 12 Mounting part 21a Opening part 32 Second member 32a Outer peripheral surface 41 Cylindrical member 41a Inner peripheral surface 42 Cover part 42a Outer peripheral part 51, 52, 53 Groove part 200 Electric wire 201 Insertion part 202 Non-insertion part A, B Circumferential direction

Claims (6)

Are formed opening through the core to the housing portion an annular core is accommodated, and mounted on a sensor for detecting the detected amount of electric wire which is wound on the receiving portion is inserted more than once in the opening capable a configured instrumentation Chakubuhin,
Comprising a tubular insertion member to be inserted into the opening in the attached state to the sensor,
On the inner peripheral surface of the cylindrical insertion member, positioning portions are arranged along the circumferential direction of the inner peripheral surface at one end and the other end in the axial direction of the cylindrical insertion member. A plurality of
Each said positioning part is comprised so that the insertion part of the said electric wire inserted in the said cylindrical insertion member at the time of inserting the said electric wire in the said opening part can be fitted one by one, and the said inserted part inserted. Mounting parts for positioning . The mounting component according to claim 1, wherein each of the positioning portions is formed so as to be continuous from the one end portion to the other end portion. An outer peripheral portion located opposite to a side surface of the accommodating portion in a state of being attached to the sensor, and a front surface of the accommodating portion from the one end of the cylindrical insertion member to the outer peripheral portion in the attached state. One front surface portion that extends in a facing state, and the other that extends in a state of facing the other front surface of the accommodating portion from the other end portion of the tubular insertion member to the outer peripheral portion in the mounted state. And a cover portion for covering the accommodating portion ,
Wherein the front portion and the other of the front portion of one guide as by fitted the electric wire wound around the accommodating section is adjacent portions to each other of the wires to each other spaced toward the outer periphery of the cover portion The mounting component according to claim 1 or 2, wherein a guide portion is formed. Along the circumferential direction of the outer peripheral surface provided with insertable pillar-like insertion member into the tubular insertion member with a plurality of positioning portions are formed,
The positioning portions of the tubular insertion member and the positioning portions of the columnar insertion member face each other in a state where the columnar insertion member is inserted into the tubular insertion member. The mounting component according to any one of claims 1 to 3 . A detection device comprising the mounting component according to claim 1 and the sensor. A measuring device comprising: the detection device according to claim 5; and a measurement unit that measures the measured amount based on the detected amount detected by the sensor of the detection device.

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