JP2012179281A - X-ray diagnostic apparatus - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an X-ray diagnostic apparatus in which an acquired transparent image can be used by collecting the transparent images by receiving the collection instruction by a transparent image collection operation means.SOLUTION: The X-ray diagnostic apparatus includes: a storage means; a control means; and a transparent image collection operation means, wherein the storage means memorizes a transparent image that is acquired based on X rays radiated to the subject, and penetrating the subject so as to be used after the acquisition, the control means receives the collection instruction of the transparent image, and makes the storage means memorize the transparent image, and the transparent image collection operation means outputs the collection instruction. The transparent image collection operation means is composed by a foot switch that outputs the collection instruction by a leg operation.

Description

  Embodiments described herein relate generally to an X-ray diagnostic apparatus that acquires a fluoroscopic image based on X-rays transmitted through a subject.

  Conventionally, there is a circulatory X-ray system capable of performing catheter intervention and surgical treatment at the same time as in the case of EVAR treatment (stent graft insertion) of a thoracic / abdominal aortic aneurysm. is there.

  The foot switch of the circulatory X-ray system has a configuration based on two types of pedals, a fluoroscopic pedal and an imaging pedal (for example, Patent Document 1). The fluoroscopic pedal is used for X-ray irradiation that does not require image collection such as a categorical operation, and the imaging pedal is used for X-ray irradiation that requires image collection such as stent placement.

  In general, radiography uses X-rays with a higher dose than fluoroscopy, but it is often used in the operation because of the desire to collect the best image quality, and therefore the exposure dose tends to increase.

  Conventionally, radiographic images have been mostly used for X-ray imaging recording, but it has become necessary to record fluoroscopic images with lower doses due to the recent increase in exposure reduction, which has been implemented in products. Yes.

  In order to record a fluoroscopic image, the fluoroscopic image may be collected rather than simply acquired. In the following description, obtaining a fluoroscopic image means temporarily storing a fluoroscopic image acquired in X-ray fluoroscopy in a temporary storage unit. On the other hand, the collection of fluoroscopic images means storing a fluoroscopic image acquired in X-ray fluoroscopy in a storage unit (for example, a hard disk) so that it can be used after X-ray fluoroscopy.

  In recent years, with the improvement of fluoroscopic image quality, opportunities for collecting and leaving fluoroscopic images have increased. As a conventional technique, it is possible to collect a desired fluoroscopic image by providing a fluoroscopic collection switch on a table side console and enabling it before or after X-ray fluoroscopy.

JP 2007-296177 A

  However, the conventional fluoroscopic collection switch provided in the table side console requires one action separately from the pedal of the foot switch, which is troublesome in operation.

  In one embodiment made in view of the above problems, an X-ray diagnostic apparatus that can use an acquired fluoroscopic image by collecting a fluoroscopic image in response to a collection instruction from a fluoroscopic image collecting operation unit The purpose is to provide.

  In order to solve the above problems, an X-ray diagnostic apparatus according to an embodiment includes a storage unit, a control unit, and a fluoroscopic image collection operation unit, and the storage unit irradiates the subject and transmits the subject. The fluoroscopic image acquired based on the image is stored so as to be usable after acquisition, the control means receives the fluoroscopic image collection instruction, stores the fluoroscopic image in the storage means, and the fluoroscopic image collection operation means outputs the collection instruction. . The fluoroscopic image collection operation means is configured by a foot switch that outputs a collection instruction by a foot operation.

It is a functional block diagram of the X-ray diagnostic apparatus which concerns on one Embodiment. It is a figure which shows an example of arrangement | positioning of various pedals. It is an IIB arrow line view of FIG. 2A. It is a flowchart which shows a series of operation | movement of the control which memorize | stores a fluoroscopic image. It is a flowchart which shows operation | movement of 1st memory | storage control. It is a flowchart which shows operation | movement of 2nd memory | storage control. It is a figure which shows an interface. It is a flowchart which shows operation | movement of a function switching means. It is a flowchart which shows operation | movement of a mode switching means.

  An embodiment of the X-ray diagnostic apparatus 10 will be described with reference to the drawings. 1 is a functional block diagram of the X-ray diagnostic apparatus, FIG. 2A is a diagram showing an example of the arrangement of various pedals in the foot switch 20, and FIG. 2B is a view taken along the arrow IIB in FIG. 2A.

  The foot switch 20 includes a fluoroscopic pedal 21, a photographing pedal 22, a first fluoroscopic collecting pedal 23, and a second fluoroscopic collecting pedal 24. Further, the foot switch 20 is provided with a hook 25.

  The fluoroscopic pedal 21 is an example of a fluoroscopic operation means for outputting a fluoroscopic image acquisition instruction. The image acquisition means 11 receives an X-ray fluoroscopic acquisition instruction from the fluoroscopic pedal 21 and irradiates a subject with a low dose of X-rays from an X-ray tube (not shown), and an X-ray detector (not shown). A fluoroscopic image is acquired based on the X-rays transmitted through the subject detected by the above, and the acquired fluoroscopic image is temporarily stored in the temporary storage unit 12. The control means 40 displays the fluoroscopic image on the monitor 32.

  The photographing pedal 22 is an operation means for outputting a photographed image collection instruction. The image acquisition means 11 receives a captured image collection instruction from the imaging pedal 22, irradiates the subject with a high dose of X-rays from the X-ray tube, and transmits the subject detected by the X-ray detector. A captured image is acquired based on the X-ray, and the acquired captured image is stored in the storage unit 44 so as to be usable.

  The first perspective collection pedal 23 and the second perspective collection pedal 24 are an example of a perspective image collection operation means.

  The first perspective collection pedal 23 is an example of a first collection operation means for issuing a collection instruction for storing a perspective image in the storage means 44. In this embodiment, the first fluoroscopic collection pedal 23 irradiates a subject with a low dose of X-rays from an X-ray tube (not shown), and is detected by an X-ray detector (not shown). A fluoroscopic image is acquired based on X-rays transmitted through the specimen, and a fluoroscopic image acquisition instruction for temporarily storing the fluoroscopic image acquired by X-ray fluoroscopy in the temporary storage unit 12 is given to the temporary storage unit 12. It is assumed that a collection instruction for storing the temporarily stored fluoroscopic image in the storage unit 44 is issued.

  The second fluoroscopic collecting pedal 24 is an example of a second collecting operation means for issuing a collection instruction for storing the fluoroscopic image temporarily stored in the temporary storage means 12 by X-ray fluoroscopy in the storage means 44 after the X-ray fluoroscopic start. .

  Note that temporarily storing a fluoroscopic image in the temporary storage unit 12 may be referred to as “acquisition”, and storing the fluoroscopic image temporarily stored in the storage unit 44 may be referred to as “collection”. Further, acquisition instruction information for temporarily storing a fluoroscopic image in the temporary storage unit 12 (hereinafter simply referred to as an acquisition instruction) and collection instruction information for storing the temporarily stored fluoroscopic image in the storage unit 44 (hereinafter, referred to as an acquisition instruction information). Information that is output by one operation of the first fluoroscopic collecting pedal 23 is referred to as first information. Further, collection instruction information for collecting a fluoroscopic image retrospectively at the start of X-ray fluoroscopy, and information output by the second fluoroscopic collection pedal 24 after the X-ray fluoroscopy starts is referred to as second information.

(Memory control)
As described above, when the first information is output by one operation of the first fluoroscopic collecting pedal 23, the fluoroscopic image is acquired and collected from that time, and the second information is acquired by the second fluoroscopic collecting pedal 24. When output, a fluoroscopic image is acquired retroactively at the start of X-ray fluoroscopy.

  Next, a series of operations for storage control will be described with reference to FIGS.

  FIG. 3 is a flowchart showing a series of control operations for storing a fluoroscopic image. As shown in FIG. 3, the control means 40 determines whether or not the first information is output by the first fluoroscopic collection pedal 23 (step S101). When the control unit 40 determines that the first information has been output (step S101: Yes), the control unit 40 temporarily stores the fluoroscopic image in the temporary storage unit 12 and also stores it in the storage unit 44. Storage control is performed (step S102).

  When the control means 40 determines that the first information is not output (step S101: No), and further when the control means 40 determines that a fluoroscopic image acquisition instruction is output from the fluoroscopic pedal 21 (step S103). : Yes), the second storage control is performed in which the control means 40 temporarily stores the fluoroscopic image in the temporary storage means 12 (step S104).

(First memory control)
Next, the operation of the first storage control performed when the first information is output by the first fluoroscopic collection pedal 23 will be described with reference to FIG.

  When the first information (transmission image acquisition instruction and acquisition instruction) is output by the first fluoroscopic collection pedal 23, the image acquisition means 11 irradiates the subject with a low dose of X-rays and detects the X-ray detector. A fluoroscopic image is acquired based on X-rays transmitted through the subject. The control means 40 stores the acquired fluoroscopic image in the storage means 44 so that it can be used after fluoroscopy. The control means 40 displays the fluoroscopic image on the monitor 32.

  By incorporating both a function of outputting a fluoroscopic image acquisition instruction and a function of outputting a fluoroscopic image acquisition instruction into one first fluoroscopic collection pedal 23, the same as when operating the shooting pedal 22 when acquiring a captured image With this feeling of operation, fluoroscopic images can be collected, intuitive operation is possible, and fluoroscopic images are acquired by low-dose X-ray fluoroscopy. As compared with the case of performing the above, the effect of reducing the exposure dose of the patient can be obtained.

  In the first storage control, the fluoroscopic image collection instruction is output only when the first fluoroscopic collection pedal 23 is depressed and the switch is in the ON state. This is basically the same as the control at the time of X-ray imaging in which an imaging instruction is output only when the imaging pedal 22 is depressed and the switch is in the ON state, although the signal when instructing the acquisition of the image is different. It is.

  FIG. 4 is a flowchart showing the operation of the first storage control. As shown in FIG. 4, the control means 40 determines whether or not the first information is output from the first fluoroscopic collection pedal 23 (step S201). When the control unit 40 determines that the first information is output (step S201: Yes), the control unit 40 controls the image acquisition unit 11 to temporarily store the fluoroscopic image in the temporary storage unit 12. The fluoroscopic images are collected by storing the fluoroscopic images temporarily stored in the storage unit 44 (step S202). Thereafter, the first storage control is terminated.

  When the control means 40 determines that the first information is not output (step S201: No), the first storage control is terminated.

  In the first storage control when the first information (the fluoroscopic image acquisition instruction and the collection instruction) is output by the first fluoroscopic collection pedal 23 in order to collect the fluoroscopic image from the time of disclosure of the X-ray fluoroscopy, the fluoroscopic image is It is temporarily stored in the temporary storage unit 12 and stored in the storage unit 44. When the next X-ray fluoroscopy is started upon receiving a fluoroscopic image collection instruction from the fluoroscopic pedal 21, the previous fluoroscopic image temporarily stored is overwritten with the new fluoroscopic image on the temporary storage unit 12. Although erased, the previous fluoroscopic image stored in the storage means 44 is not erased and can be used. By one operation of the first fluoroscopic collecting pedal 23, it is possible to collect fluoroscopic images with the same operational feeling as when the photographing pedal is depressed, and it is possible to perform an intuitive operation and to reduce the exposure dose of the patient. Is obtained.

(Second memory control)
Next, at the start of X-ray fluoroscopy, the second memory control is performed when a fluoroscopic image acquisition instruction is output from the fluoroscopic pedal 21 in order to acquire only the fluoroscopic image without collecting the fluoroscopic image. The operation will be described with reference to FIG.

  Upon receiving a fluoroscopic image acquisition instruction from the fluoroscopic pedal 21, the image acquisition unit 11 irradiates the subject with a low dose of X-rays and performs fluoroscopy based on the X-rays transmitted through the subject detected by the X-ray detector. Get an image. The control unit 40 temporarily stores the acquired fluoroscopic image in the temporary storage unit 12 and displays the fluoroscopic image on the monitor 32.

  FIG. 5 is a flowchart showing the operation of the second storage control. As shown in FIG. 5, in the second storage control, the control means 40 determines whether or not the second information (perspective image collection instruction) from the second perspective collection pedal 24 is output (step S301). .

  When the control unit 40 determines that the second information has been output (step S301: Yes), the control unit 40 causes the storage unit 44 to store the fluoroscopic image temporarily stored in the temporary storage unit 12. A fluoroscopic image is collected (step S302). Thereafter, the second storage control is terminated.

  When the control unit 40 determines that the second information is not output (step S301: No), the second storage control is terminated.

  Therefore, in the second storage control, when the second information is output on condition that the second information (perspective image collection instruction) by the second perspective collection pedal 24 is output, the temporary storage unit 12 The perspective image temporarily stored in the storage unit 44 is stored in the storage means 44, and the perspective image is collected. That is, forgetting to step on the first fluoroscopic collection pedal 23 and outputting the fluoroscopic image without outputting the fluoroscopic image collection instruction by the first fluoroscopic collecting pedal 23, the second fluoroscopic collecting pedal 24 can be operated. By performing the operation, it is possible to collect a fluoroscopic image retroactively at the start of X-ray fluoroscopy.

  As described above, by providing the foot switch 20 with the fluoroscopic pedal 21, the photographing pedal 22, the first fluoroscopic collecting pedal 23, and the second fluoroscopic collecting pedal 24, the photographed image or the fluoroscopic image is collected in various modes. This makes it possible to improve operability. In order to further improve the operability, the function of the pedal may be switched or the effectiveness of the pedal operation may be selected.

(Function switching means)
Next, the function switching means 41 for switching the function of the pedal will be described with reference to FIG. 1, FIG. 6, and FIG.

  As shown in FIG. 1, the interface 30 includes an input unit 31 including a pointing device such as a mouse, a monitor 32, and a display control unit 34 that displays a pedal setting screen 33 on the monitor 32.

  FIG. 6 is a diagram showing the interface 30. As shown in FIG. 6, the display control means 34 includes symbols A1 to A4 indicating various pedals including a fluoroscopic pedal 21, a photographing pedal 22, a first fluoroscopic collecting pedal 23, and a second fluoroscopic collecting pedal 24, and The symbols B1 to B4 indicating the positions of the pedals are displayed on the pedal setting screen 33.

  For example, in response to the designation of the design A3 of the first fluoroscopic collecting pedal 23 by the input unit 31, the function switching means 41 determines that the design A3 has been selected. When the symbol B2 is designated by moving the symbol A3 to the symbol B2 by the drag and drop operation by the input unit 31, the function switching unit 41 determines that the symbol B2 is selected. Thereby, the function switching means 41 assigns the function of the first fluoroscopic collection pedal 23 to the pedal disposed at the position indicated by the symbol B2.

  Further, for example, in response to the designation of the design A3 of the first fluoroscopic collection pedal 23 by the input unit 31, the function switching means 41 determines that the design A3 has been selected. When the symbol A3 is moved to the symbol B3 by the drag-and-drop operation using the input unit 31, the function switching means 41 determines that the symbol B3 is selected in response to the designation of the symbol B3 at the position. To do. Thereby, the function switching means 41 assigns the function of the first fluoroscopic collection pedal 23 to the pedal disposed at the position indicated by the symbol B3.

  Furthermore, for example, upon receiving designation of the symbol A2 of the photographing pedal 22 by the input unit 31, the function switching unit 41 determines that the symbol A2 has been selected. When the symbol B2 is specified by moving the symbol A2 to the symbol B2 by drag and drop operation using the input unit 31, the function switching unit 41 determines that the symbol B2 is selected. Thereby, the function switching means 41 assigns the function of the photographing pedal 22 to the pedal disposed at the position indicated by the symbol B2. As described above, it is possible to assign the function of the first fluoroscopic collection pedal 23 to the pedal that is switched from the position shown in the symbol B2 to the position shown in the symbol B3 in response to the designation by the input unit 31. It becomes. Further, the function of the photographing pedal 22 can be assigned to the pedal arranged at the position shown in the symbol B2.

(Operation of function switching means)
Next, the operation of the function switching means 41 will be described with reference to FIG. FIG. 7 is a flowchart showing the operation of the function switching means 41.

  First, the function switching means 41 determines whether any of the various pedal symbols A1 to A4 on the pedal setting screen 33 has been selected (step S401). When the function switching means 41 determines that the pedal symbol has been selected in response to the designation of the pedal symbol by the operation of the input unit 31 (step S401: Yes). Next, it is determined whether or not any of the symbols B1 to B4 indicating the position is selected by the function switching means 41 (step S402). When the function switching means 41 does not determine that the pedal symbol has been selected (step S401: No), the function switching means 41 determines whether or not there has been an instruction to end the pedal function switching (step S404).

  When the function switching unit 41 determines that the symbol indicating the position has been selected in response to the designation of the symbol indicating the position by the drag-and-drop operation using the input unit 31 (step S402: Yes), the function is switched. The means 41 assigns the function of the selected symbolic pedal to the pedal at the designated position (step S403). Next, it is determined whether or not the function switching means 41 has instructed the end of the pedal function switching (step S404). When the function switching unit 41 does not determine that the symbol indicating the position has been selected (No at Step S402), the function switching unit 41 determines whether an instruction to end the function switching of the pedal has been received (Step S404).

  When the function switching means 41 determines that there is an instruction to end the function switching of the pedal (step S404: Yes), the function switching of the pedal is ended. If it is not determined that there is an instruction to end the function switching of the pedal (step S404: No), it is determined whether any of the symbols A1 to A4 of the various pedals has been selected (step S401).

  By the operation of the input unit 31 described above, the function of the selected pedal can be assigned to the pedal disposed at the selected position. Thus, the function of the pedal can be freely switched. For example, the function of the photographing pedal and the fluoroscopic collection pedal can be switched without impairing the operability of each other.

(Mode switching means)
Next, the mode switching means 42 for selecting the effectiveness of the pedal operation will be described with reference to FIGS.

  As shown in FIG. 6, the display control means 34 displays a symbol C indicating ON / OFF on the pedal setting screen 33. When the symbol C is moved to the symbol B1 on the pedal setting screen 33 by the drag-and-drop operation using the input unit 31, and the symbol B1 is designated, the mode switching means 42 is changed to the symbol B1. The mechanism of the pedal arranged at the indicated position is switched from valid (on mode) to invalid (off mode), or from off to on. In the on mode, an instruction is sent to the control means 40 when the pedal is operated. In the off mode, the instruction is not sent to the control means 40 even if the pedal is operated.

(Operation of mode switching means)
An example of the operation of the mode switching means 42 will be described with reference to FIG. FIG. 8 is a flowchart showing the operation of the mode switching means 42.

  First, the mode switching means 42 determines whether or not the symbol C on the pedal setting screen 33 has been designated (step S501).

  In response to the designation of the symbol C by the input unit 31, when the mode switching unit 42 determines that the symbol C has been designated (step S501: Yes), the mode switching unit 42 is one of symbols B1 to B4 indicating the position. Is determined (step S502). When the mode switching unit 42 does not determine that the symbol C has been designated (step S501: No), the mode switching unit 42 determines whether there is an instruction to end the mode switching (step S504).

  When the symbol C moves on the pedal setting screen 33 by the drag and drop operation using the input unit 31 and the symbols B1 to B4 indicating the positions are designated, any of the symbols B1 to B4 is designated. If the mode switching means 42 determines (Yes in step S502), the mode switching means 42 switches the function of the pedal disposed at that position from valid to invalid, or from invalid to valid (step S503). Next, the mode switching means 42 determines whether there is an instruction to end the mode switching (step S504). When the mode switching means 42 determines that there is an instruction to end the mode switching (step S504: Yes), the mode switching is ended. If it is not determined that an instruction to end mode switching has been given (step S504: No), the mode switching means 42 determines whether or not the symbol C has been specified (step S501).

(hook)
Next, the hook 25 provided in the foot switch 20 will be described with reference to FIGS. 2A and 2B. In the following description, the fluoroscopic pedal 21 shown in FIG. 2A is referred to as a left pedal, the photographing pedal 22 is referred to as a central pedal, and the first fluoroscopic collecting pedal is referred to as a right pedal.

  The hook 25 is used when carrying the foot switch 20 and is used when checking the position of the pedal.

  The hook 25 is formed in a bar shape that is curved in a substantially arc shape by a metal material or a resin material. The central portion 26 of the hook 25 is provided so as to cross the upper region of the central pedal. The left side portion 27 of the hook 25 is provided so as to obliquely enter a part of the left pedal upper region. The right side portion 28 of the hook 25 is provided so as to obliquely enter a part of the right pedal upper region.

  The left side 27 of the hook 25 may be provided along the boundary of the upper region of the left pedal. Similarly, the right side portion 28 of the hook 25 may be provided along the boundary of the right pedal upper region.

  By providing such a hook 25, the pedal can be operated as follows. In the following description, it is assumed that the operator operates the pedal with the right foot, and the toe of the operator's right foot is facing upward on the paper surface of FIG. 2A.

  When the operator's toe hits the hook 25, the foot is above the center pedal. It is possible to operate the center pedal by dropping the foot from that position. Further, when the right side of the toes (the little finger side) or the outside of the foot hits the hook 25, the foot is above the left pedal. It is possible to operate the left pedal by dropping the foot from that position. Furthermore, when the left side of the toes (thumb side) or the inside of the foot hits the hook 25, the foot is above the right pedal. It is possible to operate the right pedal by dropping the foot from that position.

  As described above, the operator can recognize which pedal is located above by which part of the foot hits the hook 25. Thereby, the operator can check the position of the pedal and operate the pedal without looking at the pedal.

  In the above-described embodiment, the first perspective collection pedal 23 having a function of outputting a fluoroscopic image acquisition instruction and a collection instruction is shown. However, after the fluoroscopic image is collected, an erase instruction for erasing the collected fluoroscopic image is output. The first fluoroscopic collecting pedal 23 may be given the function of performing this function, and the function of outputting the erasing instruction may be given to a switch different from the first fluoroscopic collecting pedal 23.

  Further, in the embodiment, even after the acquisition of the fluoroscopic image is started by the operation of the first fluoroscopic collection pedal 23 and the fluoroscopic pedal 21 having the function of outputting the fluoroscopic image acquisition instruction and the collection instruction, Although the second fluoroscopic collection pedal 24 having a function of outputting a collection instruction is shown as a separate body, it may be configured such that both functions are switched by a single pedal.

  In the embodiment, the fluoroscopic image acquired by the fluoroscopic pedal 21 and the fluoroscopic image temporarily stored in the temporary storage unit 12 by the image acquiring unit 11 is received by the fluoroscopic pedal 21. When the next X-ray fluoroscopy is started, the previous fluoroscopic image temporarily stored in the temporary memory 12 is erased by overwriting the new fluoroscopic image on the temporary memory 12. However, the storage area of the temporary storage means 12 is divided into a plurality of parts, and the fluoroscopic images acquired each time are stored in the respective storage areas of the temporary storage means 12 so as not to be overwritten, and a predetermined time limit arrives. Until then, the fluoroscopic images acquired each time may be left in each storage area of the temporary storage unit 12. Then, in response to a fluoroscopic image collection instruction from the second fluoroscopic collection pedal 24 (or a separate collection switch), the control means 40 stores the fluoroscopic images temporarily stored in each storage area in the storage means 44. You may make it make it.

  For example: A timer 43 is provided for measuring an elapsed time after receiving an instruction to start or end the acquisition of the fluoroscopic image by the fluoroscopic pedal 21, and the control means 40 receives the measurement result from the timer 43 and the elapsed time is predetermined. When it is determined that the time limit (e.g., 8 hours, 1 day, 1 week, 1 month) has passed after receiving an instruction to start acquisition of a fluoroscopic image by the fluoroscopic pedal 21 or to end acquisition of a fluoroscopic image, image acquisition means 11 may be deleted. Further, the control means 40 receives the fluoroscopic image collection instruction from the second fluoroscopic collection pedal 24 or the like until the predetermined time limit, and the control means 40 stores the fluoroscopic images temporarily stored in the respective storage areas. Remember me.

  Although several embodiments of the present invention have been described, these embodiments are presented by way of example and are not intended to limit the scope of the invention. These novel embodiments can be implemented in various other forms, and various omissions, rewrites, and changes can be made without departing from the scope of the invention. These embodiments and modifications thereof are included in the scope and gist of the invention, and are included in the invention described in the claims and the equivalents thereof.

DESCRIPTION OF SYMBOLS 10 X-ray diagnostic apparatus 11 Image acquisition means 12 Temporary storage means 20 Foot switch 21 Perspective pedal 22 Imaging pedal 23 1st perspective collection pedal 24 2nd perspective collection pedal 30 Interface 31 Input part 32 Monitor 33 Pedal setting screen 34 Display control means 40 Control means 41 Function switching means 42 Mode switching means 43 Timer 44 Storage means

Claims (7)

Storage means for storing a fluoroscopic image obtained based on X-rays irradiated on the subject and transmitted through the subject so as to be usable after the acquisition;
Control means for receiving a fluoroscopic image collection instruction, and storing the fluoroscopic image in the storage means;
Fluoroscopic image collection operation means for outputting the collection instruction;
Have
The X-ray diagnostic apparatus according to claim 1, wherein the fluoroscopic image collection operation means includes a foot switch that outputs the collection instruction by a foot operation.   The X-ray diagnostic apparatus according to claim 1, wherein the fluoroscopic image collecting operation unit includes a first collecting operation unit for outputting an instruction to collect the fluoroscopic image to the control unit by one operation. . A temporary storage means for temporarily storing the acquired fluoroscopic image;
In response to the fluoroscopic image collection instruction, the control unit stores the temporarily stored fluoroscopic image in the storage unit,
The X-ray diagnostic apparatus according to claim 1, wherein the fluoroscopic image collecting operation unit includes a second collecting operation unit for outputting the instruction to collect the fluoroscopic image to the control unit. A temporary storage means for temporarily storing the acquired fluoroscopic image;
The control means receives a fluoroscopic image acquisition instruction, temporarily stores the fluoroscopic image in the temporary storage means,
Further, the control means receives an instruction to collect a fluoroscopic image, and stores the temporarily stored fluoroscopic image in the storage means,
Further comprising fluoroscopic operation means for outputting an instruction to obtain the fluoroscopic image;
The X-ray diagnostic apparatus according to claim 1, wherein the fluoroscopic image collecting operation unit includes a second collecting operation unit for outputting the instruction to collect the fluoroscopic image to the control unit. . The fluoroscopic operation means is configured to output the instruction to the control means by a foot operation,
The X-ray diagnostic apparatus according to claim 4, wherein the foot switch includes the first acquisition operation unit and the second acquisition operation unit, and further includes the fluoroscopic operation unit. The foot switch is provided with a plurality of pedals,
6. The apparatus according to claim 5, further comprising a function switching unit that assigns each of the functions of the first collection operation unit, the second collection operation unit, and the fluoroscopic operation unit to each pedal so as to be switched. The X-ray diagnostic apparatus described.   7. The apparatus according to claim 1, further comprising mode switching means for switching the function of the first collection operation means and / or the second collection operation means from valid to invalid, and switching from invalid to valid. The X-ray diagnostic apparatus in any one.

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