JP5175945B2 - Ultrasonic diagnostic equipment - Google Patents

Description

  The present invention relates to an ultrasonic diagnostic apparatus, and in particular, heat radiation of an ultrasonic probe of an ultrasonic diagnostic apparatus that performs diagnosis based on an ultrasonic image generated by transmitting and receiving ultrasonic waves from a transducer array of the ultrasonic probe. Regarding measures.

  Conventionally, in the medical field, an ultrasonic diagnostic apparatus using an ultrasonic image has been put into practical use. In general, this type of ultrasonic diagnostic apparatus has an ultrasonic probe with a built-in transducer array and an apparatus main body connected to the ultrasonic probe, and ultrasonic waves are directed toward the subject from the ultrasonic probe. , The ultrasonic echo from the subject is received by the ultrasonic probe, and the received signal is electrically processed by the apparatus main body to generate an ultrasonic image.

In such an ultrasonic diagnostic apparatus, heat is generated from the transducer array by transmitting ultrasonic waves from the transducer array.
However, since the operator usually holds the ultrasonic probe with one hand and makes a diagnosis while the ultrasonic wave transmitting / receiving surface of the transducer array is in contact with the surface of the subject, the ultrasonic probe is easily held by the operator with one hand. It is often housed in a small enough enclosure. For this reason, the temperature of the housing of the ultrasonic probe may rise due to heat generated from the transducer array.

In recent years, an ultrasonic probe has a built-in circuit board for signal processing, and the received signal output from the transducer array is digitally processed and transmitted to the apparatus body by wireless communication or wired communication. There has been proposed an ultrasonic diagnostic apparatus that reduces the influence and obtains a high-quality ultrasonic image.
In an ultrasonic probe that performs this kind of digital processing, heat is generated from the circuit board even during processing of the received signal, and it is necessary to suppress temperature rise in the enclosure to ensure stable operation of each circuit on the circuit board There is.

  As for heat radiation countermeasures for the ultrasonic probe, for example, Patent Document 1 discloses an ultrasonic diagnostic apparatus configured to cool the ultrasonic probe using a coolant such as water. A refrigerant pipe is formed along a cable connecting the diagnostic apparatus main body and the ultrasonic probe, and a refrigerant circulation device is provided in a probe connector portion for connecting the cable to the diagnostic apparatus main body. The ultrasonic probe is cooled by circulating a refrigerant between the probe connector portion of the diagnostic apparatus main body and the ultrasonic probe via the.

JP 2006-158411 A

  However, the apparatus of Patent Document 1 has a problem that the ultrasonic diagnostic apparatus is complicated because the refrigerant circulating apparatus must be installed in the probe connector portion of the diagnostic apparatus body. In addition, since the refrigerant tube is formed along the cable connecting the diagnostic apparatus main body and the ultrasonic probe, the cable becomes thicker and the flexibility is lowered. Therefore, an operation that is important for the ultrasonic probe is performed. May be impaired.

  The present invention has been made in order to solve such conventional problems, and an ultrasonic diagnostic apparatus capable of radiating heat from an ultrasonic probe with a simple structure and without impairing the operability of the ultrasonic probe. The purpose is to provide.

  An ultrasonic diagnostic apparatus according to the present invention transmits an ultrasonic beam from a transducer array of an ultrasonic probe toward a subject and outputs it from the transducer array of an ultrasonic probe that has received an ultrasonic echo from the subject. An ultrasonic diagnostic apparatus that processes a received signal and generates an ultrasonic image in the diagnostic apparatus body based on the processed received signal, and is disposed on the ultrasonic probe and heats a heat generating part in the ultrasonic probe. At least one heat radiation terminal connected to the operator, and a heat radiation unit that is attachable to the operator's body and is detachably connected to the heat radiation terminal to release the heat generated in the heat generating part in the ultrasonic probe. It is provided.

The heat radiating terminal can be disposed on the housing of the ultrasonic probe. In this case, a plurality of heat radiation terminals arranged at different positions of the ultrasonic probe may be provided, and the heat radiation unit may be connected to any one of the plurality of heat radiation terminals.
Further, a heat radiating cable drawn out from the housing of the ultrasonic probe may be further provided, and a heat radiating terminal may be arranged at the tip of the heat radiating cable.

Preferably, the heat dissipation unit is attached to a glove or wristband that fits in the operator's hand.
A power receiving terminal arranged on the ultrasonic probe and electrically connected to each part in the ultrasonic probe, and a power receiving terminal arranged in the heat dissipation unit and detachably connected to the power receiving terminal to supply power to each part in the ultrasonic probe. It is also possible to further include a power feeding unit for performing the above. In this case, the heat radiating terminal and the power receiving terminal may be formed in a single connector.
In addition, the ultrasonic probe and the diagnostic apparatus main body can be connected by wireless communication.

  According to the present invention, at least one heat radiating terminal thermally connected to the heat generating portion in the ultrasonic probe is disposed on the ultrasonic probe, and the heat radiating unit detachably connected to the heat radiating terminal is provided on the operator's body. Since it can be attached, the heat generated in the heat generating part in the ultrasonic probe can be released by the heat dissipation unit, and the heat radiation of the ultrasonic probe can be performed without compromising the operability of the ultrasonic probe with a simple structure. Is possible.

1 is a block diagram showing a configuration of an ultrasonic diagnostic apparatus according to Embodiment 1 of the present invention. 1 is a perspective view showing an ultrasonic probe in Embodiment 1. FIG. It is a figure which shows the glove with which the thermal radiation unit was attached in Embodiment 1. FIG. FIG. 3 is a diagram illustrating a heat radiating terminal and a heat receiving terminal in the first embodiment. FIG. 6 is a perspective view showing an ultrasonic probe in the second embodiment. 6 is a perspective view showing an ultrasonic probe in Embodiment 3. FIG. FIG. 6 is a block diagram illustrating a configuration of an ultrasonic diagnostic apparatus according to a fourth embodiment. FIG. 10 is a cross-sectional view showing a coaxial connector used in a modification of the fourth embodiment.

Embodiments of the present invention will be described below with reference to the accompanying drawings.
Embodiment 1
FIG. 1 shows the configuration of an ultrasonic diagnostic apparatus according to Embodiment 1 of the present invention. The ultrasonic diagnostic apparatus includes an ultrasonic probe 1, a diagnostic apparatus main body 2 connected to the ultrasonic probe 1 by wireless communication, and a heat radiating unit 3 detachably connected to the ultrasonic probe 1.

  The ultrasonic probe 1 has a plurality of ultrasonic transducers 4 constituting a plurality of channels of a one-dimensional or two-dimensional transducer array, and a reception signal processing unit 5 is connected to each of the transducers 4 to receive a reception signal. A wireless communication unit 9 is connected to the processing unit 5 through a data storage unit 6, a phasing addition unit 7 and a signal processing unit 8 in order. A transmission control unit 11 is connected to the plurality of transducers 4 via the transmission drive unit 10, a reception control unit 12 is connected to the plurality of reception signal processing units 5, and a communication control unit 13 is connected to the wireless communication unit 9. ing. A probe control unit 14 is connected to the transmission control unit 11, the reception control unit 12, and the communication control unit 13. Further, the ultrasonic probe 1 is provided with a heat radiating terminal 15 thermally connected to each part that generates heat in the ultrasonic probe 1.

Each of the plurality of transducers 4 transmits an ultrasonic wave according to a drive signal supplied from the transmission drive unit 10, receives an ultrasonic echo from the subject, and outputs a reception signal. Each transducer 4 is a vibration in which electrodes are formed on both ends of a piezoelectric body made of, for example, a piezoelectric ceramic represented by PZT (lead zirconate titanate) or a polymer piezoelectric element represented by PVDF (polyvinylidene fluoride). Consists of children.
When a pulsed or continuous wave voltage is applied to the electrodes of such a vibrator, the piezoelectric body expands and contracts, and pulsed or continuous wave ultrasonic waves are generated from the respective vibrators, and the synthesis of those ultrasonic waves. As a result, an ultrasonic beam is formed. In addition, each transducer generates an electric signal by expanding and contracting by receiving propagating ultrasonic waves, and these electric signals are output as ultrasonic reception signals.

  The transmission drive unit 10 includes, for example, a plurality of pulsars, and based on the transmission delay pattern selected by the transmission control unit 11, the ultrasonic waves transmitted from the plurality of transducers 4 pass through the tissue area in the subject. The delay amount of each drive signal is adjusted so as to form a wide ultrasonic beam to be covered and supplied to the plurality of transducers 4.

The reception signal processing unit 5 of each channel generates a complex baseband signal by performing orthogonal detection processing or orthogonal sampling processing on the reception signal output from the corresponding transducer 4 under the control of the reception control unit 12. Then, sample data including information on the area of the tissue is generated by sampling the complex baseband signal. The reception signal processing unit 5 may generate sample data by performing data compression processing for high-efficiency encoding on data obtained by sampling a complex baseband signal.
The data storage unit 6 is configured by a memory or the like, and stores at least one frame worth of sample data generated by the plurality of reception signal processing units 5.

The phasing addition unit 7 selects one reception delay pattern from a plurality of reception delay patterns stored in advance according to the reception direction set in the probe control unit 14, and sets the selected reception delay pattern. Based on this, the reception focus process is performed by adding a delay to each of the plurality of complex baseband signals represented by the sample data. By this reception focus processing, a baseband signal (sound ray signal) in which the focus of the ultrasonic echo is narrowed is generated.
The signal processing unit 8 corrects the attenuation due to the distance according to the depth of the reflection position of the ultrasonic wave on the sound ray signal generated by the phasing addition unit 7, and then follows a normal television signal scanning method. By converting into an image signal (raster conversion), a B-mode image signal that is tomographic image information relating to the tissue in the subject is generated.

The wireless communication unit 9 generates a transmission signal by modulating a carrier based on the B-mode image signal generated by the signal processing unit 8, supplies the transmission signal to the antenna, and transmits radio waves from the antenna. A mode image signal is transmitted. As the modulation scheme, for example, ASK (Amplitude Shift Keying), PSK (Phase Shift Keying), QPSK (Quadrature Phase Shift Keying), 16QAM (16 Quadrature Amplitude Modulation), and the like are used.
The wireless communication unit 9 performs wireless communication with the diagnostic apparatus main body 2 to transmit a B-mode image signal to the diagnostic apparatus main body 2 and to receive and receive various control signals from the diagnostic apparatus main body 2. The control signal thus output is output to the communication control unit 13. The communication control unit 13 controls the wireless communication unit 9 so that the B-mode image signal is transmitted with the transmission radio wave intensity set by the probe control unit 14, and also receives various control signals received by the wireless communication unit 9. Output to the probe controller 14.

The probe control unit 14 controls each unit of the ultrasonic probe 1 based on various control signals transmitted from the diagnostic apparatus main body 2.
The ultrasonic probe 1 includes a battery (not shown), and power is supplied from the battery to each circuit in the ultrasonic probe 1.
The ultrasonic probe 1 may be an external probe such as a linear scan method, a convex scan method, a sector scan method, or an ultrasonic endoscope probe such as a radial scan method.

  On the other hand, the diagnostic apparatus body 2 includes a wireless communication unit 21, an image processing unit 22 is connected to the wireless communication unit 21, and a display control unit 23 and an image storage unit 24 are connected to the image processing unit 22, respectively. A display unit 25 is connected to the control unit 23. A communication control unit 26 is connected to the wireless communication unit 21, and a main body control unit 27 is connected to the display control unit 23 and the communication control unit 26. Furthermore, an operation unit 28 for an operator to perform an input operation and a storage unit 29 for storing an operation program and the like are connected to the main body control unit 27.

The wireless communication unit 21 transmits various control signals to the ultrasonic probe 1 by performing wireless communication with the ultrasonic probe 1. The wireless communication unit 21 outputs a B-mode image signal by demodulating the signal received by the antenna.
The communication control unit 26 controls the wireless communication unit 21 so that various control signals are transmitted with the transmission radio wave intensity set by the main body control unit 27.
The image processing unit 22 performs various necessary image processing such as gradation processing on the B-mode image signal input from the communication control unit 26, and then outputs the B-mode image signal to the display control unit 23. Store in the storage unit 24.

  The display control unit 23 causes the display unit 25 to display an ultrasound diagnostic image based on the B-mode image signal that has been subjected to image processing by the image processing unit 22. The display unit 25 includes a display device such as an LCD, for example, and displays an ultrasound diagnostic image under the control of the display control unit 23.

  In such a diagnostic apparatus main body 2, the image processing unit 22, the display control unit 23, the communication control unit 26, and the main body control unit 27 are configured by a CPU and an operation program for causing the CPU to perform various processes. These may be constituted by digital circuits. The operation program is stored in the storage unit 29. As a recording medium in the storage unit 29, a flexible disk, MO, MT, RAM, CD-ROM, DVD-ROM or the like can be used in addition to the built-in hard disk.

  The heat radiating unit 3 is for releasing the heat generated in the ultrasonic probe 1. The heat receiving terminal 31 is detachably connected to the heat radiating terminal 15 of the ultrasonic probe 1, and the heat receiving terminal 31 is thermally connected to the heat receiving terminal 31. And a connected heat radiating portion 32.

As shown in FIG. 2, the heat radiating terminal 15 is disposed so as to be exposed to the outside of the housing 1 a of the ultrasonic probe 1 and through a heat transfer member having excellent thermal conductivity such as Cu and Al. The ultrasonic probe 1 is thermally connected to each part that generates heat, for example, a plurality of reception signal processing units 5, a phasing addition unit 7, a signal processing unit 8, and the like.
On the other hand, as shown in FIG. 3, the heat radiating unit 3 is attached to a glove 33 that fits in an operator's hand. For example, the heat receiving terminal 31 protrudes from the ventral side of the finger 34 of the glove 33. A heat radiating plate is mounted on the upper portion 35 of the globe 33 as the heat radiating portion 32, and the heat receiving terminal 31 and the heat radiating portion 32 are connected to each other via a heat transfer member 36 having excellent thermal conductivity such as Cu and Al.

Next, the operation of the first embodiment will be described.
First, as shown in FIG. 4, the operator fits the globe 33 in his hand, and press-fits the heat receiving terminal 31 projectingly formed on the finger 34 of the globe 33 to the heat radiating terminal 15 of the ultrasonic probe 1 to receive heat. In a state where the terminal 31 and the heat radiating terminal 15 are connected to each other, the housing 1a of the ultrasonic probe 1 is gripped. Thereby, each part which generate | occur | produces the heat | fever in the ultrasonic probe 1, such as the some received signal processing part 5, the phasing addition part 7, and the signal processing part 8, is passed through the heat radiating terminal 15, the heat receiving terminal 31, and the heat transfer member 36. It is thermally connected to the heat radiating part 32.

  Diagnosis is started in this state. That is, ultrasonic waves are transmitted from a plurality of transducers 4 constituting the transducer array in accordance with a drive signal supplied from the transmission drive unit 10 of the ultrasonic probe 1, and output from each transducer 4 that has received an ultrasonic echo from the subject. The received signal is supplied to the corresponding received signal processing unit 5 to generate sample data, and the sound wave signal is generated by the phasing adder 7, and then the B-mode image signal generated by the signal processor 8 Is wirelessly transmitted from the wireless communication unit 9 to the diagnostic apparatus body 2. The B-mode image signal received by the wireless communication unit 21 of the diagnostic apparatus main body 2 is subjected to image processing such as gradation processing by the image processing unit 22, and then the display control unit 23 based on the B-mode image signal. An ultrasonic diagnostic image is displayed on the display unit 25.

In such a diagnosis, heat is generated mainly from the plurality of reception signal processing units 5, the phasing addition unit 7, the signal processing unit 8 and the like in the ultrasonic probe 1 along with the signal processing. Is thermally connected to the heat radiating terminal 15 via the heat transfer member in the ultrasonic probe 1 and further thermally connected to the heat radiating part 32 via the heat receiving terminal 31 and the heat transfer member 36. The heat generated in the probe 1 is radiated from the heat generating part through the heat transfer member, the heat radiating terminal 15, the heat receiving terminal 31, and the heat transfer member 36 in the ultrasonic probe 1. Conducted to the part 32 and discharged from the heat radiating part 32 to the atmosphere.
Therefore, the temperature rise in the ultrasonic probe 1 can be efficiently suppressed, and a highly accurate ultrasonic image can be obtained.

  In order not to impair the operation of the ultrasonic probe 1, the heat receiving terminal 31 is preferably arranged on the finger part 34 such as the ring finger or little finger of the glove 33, or can be arranged on the palm of the glove 33. Moreover, it is preferable to select the arrangement position of the heat radiation terminal 15 in the housing 1a of the ultrasonic probe 1 so that the operator can easily hold the ultrasonic probe 1 according to the arrangement position of the heat receiving terminal 31 in the globe 33.

  The heat radiating terminal 15 is disposed on the housing 1a of the ultrasonic probe 1 so as to be exposed to the outside. However, when the heat-receiving terminal 31 of the globe 33 is not connected by forming an openable lid, it is operated from the outside. It can also be configured so that a person's hand or finger is not touched. If such a lid is formed, the possibility that the heat radiating terminal 15 is soiled by dust or the like is reduced.

Embodiment 2
FIG. 5 shows an ultrasonic probe 41 according to the second embodiment. The ultrasonic probe 41 has a plurality of heat radiating terminals 15a, 15b,... At different positions such as the upper surface, the lower surface, and the side surface of the housing 41a, and these heat radiating terminals 15a, 15b,. 41 is thermally connected to each part that generates heat. The internal configuration of the ultrasonic probe 41 is the same as that of the ultrasonic probe 1 in the first embodiment.
As described above, since the plurality of heat radiating terminals 15a, 15b,... Are arranged at different positions on the casing 41a, the operator can connect the heat radiating terminals most easily depending on how the ultrasonic probe 41 is gripped. The heat receiving terminal 31 of the globe 33 can be appropriately connected to the glove 33, and the operability of the ultrasonic probe 41 can be improved while radiating heat.

Embodiment 3
FIG. 6 shows an ultrasonic probe 51 according to the third embodiment. The ultrasonic probe 51 has a flexible heat radiating cable 52 drawn to the outside from the casing 51 a, and a heat radiating terminal 15 c is disposed at the tip of the heat radiating cable 52. The heat radiating terminal 15 c is thermally connected to each part that generates heat in the ultrasonic probe 51 via the heat radiating cable 52. The internal configuration of the ultrasonic probe 51 is the same as that of the ultrasonic probe 1 in the first embodiment.

In this manner, by disposing the heat radiating terminal 15c at the tip of the flexible heat radiating cable 52 drawn out from the housing 51a, the heat radiating terminal 15c can be positioned freely with respect to the housing 51a of the ultrasonic probe 51. Therefore, the operability of the ultrasonic probe 51 can be further improved while performing heat dissipation.
In this case, the heat receiving terminal 31 connected to the heat radiating terminal 15c may be attached to the globe 33 as shown in FIG. 3, or may be attached to a wristband that can be fitted by the operator.

Embodiment 4
FIG. 7 shows the configuration of the ultrasonic diagnostic apparatus according to the fourth embodiment. This ultrasonic diagnostic apparatus includes an ultrasonic probe 61 connected to the diagnostic apparatus main body 2 by wireless communication, and a heat radiating unit 71 detachably connected to the ultrasonic probe 61.

The ultrasonic probe 61 in the ultrasonic probe 1 according to the first embodiment shown in FIG. 1 is electrically connected to the power receiving terminal 62 disposed so as to be exposed to the outside of the casing of the ultrasonic probe 61 and the power receiving terminal 62. The other components are the same as those of the ultrasonic probe 1.
The power receiving unit 63 is for supplying power to each unit that requires power in the ultrasonic probe 61.

The heat radiating unit 71 is electrically connected to the power feeding terminal 72 detachably connected to the power receiving terminal 62 of the ultrasonic probe 61 in the heat radiating unit 3 in the first embodiment shown in FIG. The power supply unit 73 and a battery 74 electrically connected to the power supply unit 73 are further provided.
The power feeding unit 73 is for supplying power from the battery 74 to the power receiving unit 63 of the ultrasonic probe 61 via the power feeding terminal 72 and the power receiving terminal 62 of the ultrasonic probe 61.
The power feeding terminal 72 can be attached to the globe 33 shown in FIG. 3 together with the heat receiving terminal 31, or can be attached to a wristband that can be fitted by the operator.

  At the time of diagnosis, the operator press-fits the heat receiving terminal 31 and the power feeding terminal 72 of the heat radiating unit 71 to the heat radiating terminal 15 and the power receiving terminal 62 of the ultrasonic probe 61 to connect the heat receiving terminal 31 and the heat radiating terminal 15 to each other. The power feeding terminal 72 and the power receiving terminal 62 are connected to each other. Thereby, the battery 74 in the heat dissipation unit 71 is electrically connected to the power receiving unit 63 via the power feeding unit 73, the power feeding terminal 72, and the power receiving terminal 62 of the ultrasonic probe 61, and the power from the battery 74 is transmitted to the ultrasonic probe 61. Diagnosis is performed by supplying the information to each unit.

At this time, the heat generated in the ultrasonic probe 61 is transferred from each heat generating part to the heat radiating part 32 of the globe 33 through the heat transfer member, the heat radiating terminal 15, the heat receiving terminal 31, and the heat transfer member 36 in the ultrasonic probe 61. Conducted and released from the heat radiating portion 32 into the atmosphere.
For this reason, ultrasonic diagnosis can be performed while supplying power to each part in the ultrasonic probe 61 and suppressing an increase in temperature in the ultrasonic probe 61.

  Instead of directly supplying power from the power receiving unit 63 to each part in the ultrasonic probe 61, a battery is built in the ultrasonic probe 61 in advance, and power is supplied from the power receiving unit 63 to the built-in battery of the ultrasonic probe 61. Electric power may be supplied to each part in the ultrasonic probe 61 from the battery.

Further, the heat radiating terminal 15 and the power receiving terminal 62 of the ultrasonic probe 61 can be formed in a single connector. For example, a coaxial connector receptacle 81 as shown in FIG. 8 is attached to the housing of the ultrasonic probe 61, and the center contact 82 is electrically connected to the power receiving portion 63 to be used as the power receiving terminal 62. The external contact 84 insulated from the center contact 82 can be used as the heat radiating terminal 15 by thermally connecting to each part that generates heat in the ultrasonic probe 61.
On the other hand, the plug 91 that fits into the receptacle 81 is attached to the globe 33 that fits in the hand of the operator, and the center contact 92 is electrically connected to the power feeding portion 73 to be used as the power feeding terminal 72, and the center contact is made by the insulating portion 93. An external contact 94 insulated from 92 is thermally connected to the heat radiating portion 32 and used as the heat receiving terminal 31.

By using such a coaxial connector, the heat receiving terminal 31 and the power feeding terminal 72 of the heat radiating unit 71 can be connected simply by fitting the plug 91 attached to the globe 33 to the receptacle 81 attached to the housing of the ultrasonic probe 61. Each can be connected to the heat radiating terminal 15 and the power receiving terminal 62 of the ultrasonic probe 61, and the workability is improved.
The receptacle 81 of the coaxial connector is attached to the housing of the ultrasonic probe 61, and the plug 91 is attached to the globe 33. Conversely, the plug on which the heat radiating terminal 15 and the power receiving terminal 62 are formed is connected to the ultrasonic probe 61. A receptacle on which the heat receiving terminal 31 and the power feeding terminal 72 are formed may be attached to the globe 33 by being attached to the housing.

Similar to the above-described second embodiment, a plurality of receptacles 81 each having a heat radiation terminal 15 and a power receiving terminal 62 are disposed on the housing of the ultrasonic probe 61, and the most depending on how the ultrasonic probe 61 is gripped. It is also possible to connect the plug 91 of the globe 33 to the receptacle 81 that is easy to connect. In this way, the operability of the ultrasonic probe 61 can be improved while performing heat dissipation and power feeding.
In this case, each of the plurality of receptacles 81 has a unique ID in advance, and after identifying the receptacle 81 by reading the ID of the receptacle 81 to which the plug 91 is connected among the plurality of receptacles 81, It is preferable to start feeding.

  Further, similarly to the above-described third embodiment, a flexible cable can be pulled out from the housing of the ultrasonic probe 61 and the receptacle 81 can be disposed at the tip of the cable. In this way, the operability of the ultrasonic probe 61 is further improved.

  In the first to fourth embodiments described above, the ultrasonic probe 1 or 61 and the diagnostic apparatus main body 2 are connected to each other by wireless communication. However, the present invention is not limited to this, and the ultrasonic probe 1 or 61 may be connected to the diagnostic apparatus main body 2. In this case, the wireless communication unit 9 and the communication control unit 13 of the ultrasonic probe 1 or 61, the wireless communication unit 21 and the communication control unit 26 of the diagnostic apparatus body 2, and the like are unnecessary.

  1, 41, 51, 61 Ultrasonic probe, 1a, 41a, 51a housing, 2 diagnostic device body, 3, 71 heat dissipation unit, 4 transducer, 5 received signal processing unit, 6 data storage unit, 7 phasing addition unit, 8 Signal processing unit, 9 wireless communication unit, 10 transmission drive unit, 11 transmission control unit, 12 reception control unit, 13 communication control unit, 14 probe control unit, 15, 15a, 15b, 15c heat radiation terminal, 21 wireless communication unit, 22 Image processing unit, 23 display control unit, 24 image storage unit, 25 display unit, 26 communication control unit, 27 main body control unit, 28 operation unit, 29 storage unit, 31 heat receiving terminal, 32 heat dissipation unit, 33 globe, 34 finger unit , 35 Back, 36 Heat transfer member, 52 Heat dissipation cable, 62 Power receiving terminal, 63 Power receiving part, 72 Power feeding terminal, 73 Power feeding part, 74 Battery, 81 Receptacles, 82, 92 center contacts, 83, 93 insulation, 84, 94 external contacts, 91 plugs.

Claims (8)

An ultrasonic beam is transmitted from the transducer array of the ultrasonic probe toward the subject, and the reception signal output from the transducer array of the ultrasonic probe that receives the ultrasonic echo from the subject is processed and processed. An ultrasound diagnostic apparatus that generates an ultrasound image in the diagnostic apparatus body based on the received signal,
At least one heat dissipating terminal disposed on the ultrasonic probe and thermally connected to a heat generating portion in the ultrasonic probe;
An ultrasonic diagnosis comprising: a heat radiating unit that is attachable to an operator's body and is detachably connected to the heat radiating terminal to release heat generated in a heat generating portion in the ultrasonic probe. apparatus.   The ultrasonic diagnostic apparatus according to claim 1, wherein the heat radiating terminal is disposed on a housing of the ultrasonic probe. A plurality of the heat dissipation terminals arranged at different positions of the ultrasonic probe with respect to each other,
The ultrasonic diagnostic apparatus according to claim 2, wherein the heat radiating unit is connected to one of the plurality of heat radiating terminals. Further comprising a heat radiating cable drawn out from the housing of the ultrasonic probe,
The ultrasonic diagnostic apparatus according to claim 1, wherein the heat radiating terminal is disposed at a tip of the heat radiating cable.   5. The ultrasonic diagnostic apparatus according to claim 1, wherein the heat radiating unit is attached to a glove or wristband that fits in an operator's hand. A power receiving terminal disposed on the ultrasonic probe and electrically connected to each part in the ultrasonic probe;
The power supply unit according to any one of claims 1 to 5, further comprising: a power supply unit that is disposed in the heat dissipation unit and is detachably connected to the power receiving terminal to supply power to each unit in the ultrasonic probe. The ultrasonic diagnostic apparatus as described.   The ultrasonic diagnostic apparatus according to claim 6, wherein the heat radiating terminal and the power receiving terminal are formed in a single connector.   The ultrasonic diagnostic apparatus according to claim 1, wherein the ultrasonic probe and the diagnostic apparatus main body are connected by wireless communication.

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