CA2598681A1

CA2598681A1 - Image capture device and methods

Info

Publication number: CA2598681A1
Application number: CA002598681A
Authority: CA
Inventors: Michael R. Razzano; Ronald C. Webb; Barry R. Margraf
Original assignee: Interactive Diagnostic Imaging, Inc.; Michael R. Razzano; Ronald C. Webb; Barry R. Margraf
Current assignee: Interactive Diagnostic Imaging Inc
Priority date: 2005-02-23
Filing date: 2006-02-23
Publication date: 2006-08-31
Also published as: US7194064B2; EP1853168A4; WO2006091712A2; EP1853168A2; US20060188064A1; US20060188065A1; US7360948B2; US20060188070A1; WO2006091712A3

Abstract

A novel image capture device (80), system and method are disclosed for use in capturing dental images. One or more devices are integrated within one or more components of the system. Examples of such devices include a wireless transmitter (20), a wireless receiver (304), a camera (22), a frame grabber (24), a beeper (286), indicator light (88) system, or a transilluminator light (28). A novel collimator tube (81) insert includes one or more integrated devices. A novel receptor holder (82) includes a docking port (68) for docking a sensor (64) that is used for digital x-ray capture. A novel receptor holder includes multiple arms (264) to allow a holder bar (56) to be positioned in multiple positions for capturing different image types. A novel receptor holder includes a measurement guide (297) for measuring a distance from which an image was taken from a patient. A novel alignment ring includes a sensor port and/ or a wireless transmitter for transmitting data to other devices.

Description

IMAGE CAPTURE DEVICE AND METHODS
TECHNICAL FIELD
The present invention relates generally to the field of dental imaging.
RELATED APPLICATIONS
The present application claims priority to U.S. Application No.
11/129,69o, filed May 13, 2005, which is a continuation-in-part of U.S.
Application No. 11/o63a959a filed February 23, 2005; the present application also claims priority to U.S. Application No. rl/o63,621, filed February 23, 2005, all of which are incorporated herein by reference in their entirety.

SACKGROUND ART
In today's medical profession, there are various ways to capture images of patients, such as images captured for diagnostic purposes. For example, a medical professional such as a dentist can use a traditional x-ray device to capture a film-based x-ray image of the patient's mouth. Medical professionals can also capture an x-ray image in a digital fashion using a digital x-ray device that has a computer workstation and a sensor. Digital cameras are also used by medical professionals to capture still and video images for later storage on a computer in the patient record. Each of the devices and systems typically require separate systems and pieces of equipment. There is a need for improved devices, systems and methods for capturing images.

SUMMARY OF THE INVENTION
One form of the present invention is a unique image capture device.
Other forms include unique systems and methods to capture images. Yet another form includes a unique collimator tube. Another form includes a unique receptor holder.
Another form includes a unique image capture device, system and method for use in capturing dental images. One or more devices are integrated within one or more components of the system. Examples of such devices include a radio frequency transmitter, a radio frequency receiver, other wireless transmitters and/or receivers, a camera, a frame grabber, or a transilluminator light. The integrated devices are used instead of or in addition to an x-ray generator, which is coupled to the collimator tube. The camera is used to capture digital images. The camera is either a camera port for plugging in an external camera, such as an intra-oral camera, or is wholly contained within the collimator tube. The radio frequency transmitter transmits digital data to a computer. The frame grabber captures digital data for display on a display device. The transilluminator light can illuminate an area for visual inspection and/or digital capture. A
unique collimator tube insert includes one or more integrated devices. A
unique receptor holder includes a docking port for docking a sensor that is used for digital x-ray image capture. A unique receptor holder includes multiple arms to allow a holder bar to be positioned in multiple positions for capturing different image types. A unique receptor holder includes a measurement guide for measuring a distance from which an image was taken from a patient. A unique alignment ring includes a sensor port and/or a radio frequency transmitter for transmitting data to other devices.
Yet other forms, embodiments, objects, advantages, benefits, features, and aspects of the present invention will become apparent from the detailed description and drawings contained herein.

BRIEF DESCRIPTION OF THE DRAWINGS
FIG. 1 is a perspective view of an image capture device with an x-ray collimator tube of one embodiment of the present invention.
FIG. 2 is a front end view of a collimator tube of one embodiment of the current invention.
FIG. 3 is perspective view of an intra-oral camera that can be connected to the collimator tube in one embodiment of the current invention.
FIG. 4 is a partial perspective view of a collimator tube of one shape being converted to a collimator tube of another shape using a collimator tube adapter in one embodiment of the current invention.
FIG. 5 is a perspective view of a collimator tube and an insert in one embodiment of the present invention.
FIG. 6 is a front end view of an x-ray device without a collimator tube attached for one embodiment of the present invention.
FIG. 7 is a partial elevational view of a collimator tube mating with the x-ray device of FIG. 6 in a manner that allows rotation of the collimator tube.
FIG. 8 is a side perspective view of a first embodiment receptor holder of the current invention.
FIG. 9 is a back end view of a connection end of the receptor holder of FIG. io.
FIG. lo is a partial cross-section view of the connection end of the receptor holder of FIG. lo.
FIG. 1i is a side perspective view of a second embodiment receptor holder of the current invention.
FIG. 12 is a perspective view of an image capture device illustrating an x-ray generator, collimator tube, and receptor holder of one embodiment of the present invention.
FIG. 13 is a side perspective view of an image capture device illustrating an x-ray generator, collimator tube, and receptor holder of one embodiment of the present invention.

FIG. 14 is a diagrammatic view of a system of one embodiment of the present invention for use with the image capture device of FIGS. 1-13.
FIG. 15 illustrates a high-level process flow diagram for the system of FIG. 1 and the image capture device of FIGS.1-i3.
FIG.16 is a side perspective view of an image capture device illustrating an x-ray generator, collimator tube, and receptor holder of one embodiment of the present invention.
FIG. 17 is a perspective view of an image capture device illustrating an x-ray generator, collimator tube, and receptor holder of one embodiment of the present invention.
FIG. 18 is a perspective view of a connection end of a receptor holder of one embodiment of the present invention.
FIG. 19 is a perspective view of a receptor holder of one embodiment of the present invention.
FIG. 20 is a schematic system diagram of an image capture system of one embodiment of the present invention.
FIG. 21 is a schematic system diagram of an image capture system of one embodiment of the present invention.
FIG. 22 is a schematic system diagram of an image capture system of one embodiment of the present invention.
FIG. 23 is a schematic system diagram of an image capture system of one embodiment of the present invention.
FIG. 24 is a schematic system diagram of an image capture system of one embodiment of the present invention.
FIG. 25 is a schematic system diagram of an image capture system of one embodiment of the present invention.
FIG. 26 is a schematic system diagram of an image capture system of one embodiment of the present invention.

DETAILED DESCRIPTION
For the purposes of promoting an understanding of the principles of the invention, reference will now be made to the embodiment illustrated in the drawings and specific language will be used to describe the same. It will 5 nevertheless be understood that no limitation of the scope of the invention is thereby intended. Any alterations and further modifications in the described embodiments, and any further applications of the principles of the invention as described herein are contemplated as would normally occur to one skilled in the art to which the invention relates.
The present invention relates to an image capture device, system and method for use in capturing medical images. In one embodiment, a collimator tube includes one or more integrated devices, such as a radio frequency transmitter, a camera, a frame grabber, or a transilluminator light. In another embodiment, the integrated devices are integrated within one or more walls of the collimator tube. In this embodiment, the integrated devices are used instead of or in addition to an x-ray generator, which is coupled to the collimator tube. One example of an integrated device is where a camera is used to capture digital images. The camera is either a camera port for plugging in an external camera, such as an intra-oral camera, or is wholly contained within the collimator tube. Another integrated device could be a radio frequency transmitter which transmits digital data. Yet another device is a frame grabber which captures digital data for display on a display device. Yet another example of an integrated device is a transilluminator light that can illuminate an area for visual inspection and/or digital capture. Another embodiment of this invention involves a receptor holder that may include a docking port for docking a sensor that is used for digital x-ray image capture.
Referring to FIG.1, one embodiment of the image capture device of the present invention is illustrated and indicated generally at 1o. Image capture device io is operable to capture x-ray images. The image capture device io illustrated in FIG. 1 includes x-ray generator 12 and collimator tube 14. Collimator tube 14 serves as the means for focusing x-rays produced by the x-ray generator 12. Alternatively or additionally, collimator tube 14 also decreases scatter radiation and/or decreases absorbed radiation, thereby lowering the patient's x-ray dose. In one embodiment, collimator tube 14 has a square shape in cross section.
Collimator tube 14 can also be rectangular, star, cross or round in cross section shape, as a few additional non-limiting examples.
In one embodiment, collimator tube 14 is fixed to x-ray generator 12 and cannot be removed. In another embodiment, collimator tube 14 is detachable from x-ray generator 12, such as by removing one or more screws or other securing means. Alternatively or additionally, collimator tube 14 can be a collimator tube of one shape that replaces a previously attached collimator tube of a different shape. One non-limiting example includes detaching a round-shaped collimator tube and replacing it with a rectangular-shaped collimator tube.
Collimator tube 14 has a tunnel 16 for emitting x-rays and a receptacle 30 for receiving a sliding bar of a receptor holder. Collimator tube 14 has an end 17 that serves one or more purposes. One purpose of end 17 is for coupling a receptor holder to collimator tube 14. Collimator tube 14 has one or more devices integrated within walls 18. In one embodiment, at least one integrated device is visible at least in part from end 17. In one embodiment, collimator tube 14 has a radio frequency transmitter 2o, a camera/port 22, a frame grabber 24, and/or a transilluminator light 26 integrated within one or more of walls 18.
Each of these integrated devices will now be described in further detail with reference to FIGS. 1 and 2. Radio frequency (RF) transmitter 20 is operative to send data captured with image capture device 1o to an RF
receiver external to image capture device io. For example, the RF receiver may be coupled to a remotely-located computer for the display and/or processing of images captured by the device lo. As one non-limiting example, RF transmitter 20 can transmit data captured with camera 22 to an external computer. In this way, images captured by image capture device io may be downloaded to a computer system for current and/or later use without the need to physically couple the image capture device 1o to the computer. This greatly improves the maneuverability and usefulness of the image capture device 1o.
In one embodiment, the camera 22 is built into the collimator tube 14 and is able to capture images visible from a lens or aperture formed into the end of the collimator tube 14. In another embodiment, camera 22 is an electrical port for allowing an external camera device to plug into collimator tube 14 for transmission of data from the external camera device to the collimator tube 14 integrated devices. One non-limiting example of an external camera device includes intra-oral camera 32 as shown in FIG. 3.
The intra-oral camera 32 includes an electrical plug 33 that interfaces with the camera 22 port in the collimator tube 14 for transmitting data captured by the camera 32. Cameras 22 and 32 are operative to capture still images and/or video images in various embodiments. Provision of the external intra-oral camera 32 allows for easy access to the inner regions of the patient's mouth.
In one embodiment, frame grabber 24 is operative to capture still and/or video images for display on an external video display device, such as on a television or a computer display, as is known in the art. Frame grabber 24 is integrally formed with collimator tube 14 to receive image information from one of the image devices integrated with image capture device io, such as camera 22/32 or the x-ray image receptor 44 (see FIG. 4). The output of frame grabber 24 is preferably coupled to the RF transmitter 20 for transmission of the frame data to a receiving computer and/or display device.
Transilluminator light 26 aids the image capture process by allowing for a light to be shined through a tooth, body or organ, as a few non-limiting examples. The light that is transmitted through the tooth can then be captured using the camera 22/32. For use with the camera 22 formed integrally with the collimator tube 14, means must be provided for directing the light from the transilluminator light 26 to the opposite side of the tooth as the camera 22. This may be done by use of an appropriate mirror (not shown), or by making the transilluminator light 26 an external device that plugs into a port in the collimator tube 14, similar to the intra-oral camera 32. Additionally, the transilluminator light 26 may emit light from the collimator tube 14 and the light transmitted through the tooth may be captured using the intra-oral camera 32.
Various other device combinations are also possible, such as fewer or additional devices than described herein, or a combination of those described. Power may be supplied to these devices by using the internal power supply of the image capture device lo, as will be apparent to those skilled in the art after reference to the above description.
In one form of the invention, collimator tube 14 has contact sensor receptacles 28 that are used to mate an image receptor holder (see FIGS. 8-1o) to the collimator tube 14. Contact sensor receptacle 28 can be one or more of various types, such as electrical, mechanical, optical, fiber optic, magnetic or of other connection types as would occur to one in the art. As one non-limiting example, contact sensor receptacles can be used to form a purely mechanical connection between the image receptor holder and the collimator tube 14. Alternatively or additionally, contact sensor receptacles 28 can be used to ensure a receptor holder is attached before firing x-ray generator 12. Alternatively or additionally, one or more lights can be illuminated to indicate the status of the connection, such as green to indicate a proper connection with collimator tube 14 has been made and the x-ray generator is ready to fire, and red to indicate the x-ray generator is not ready to fire, to name a few examples. Alternatively or additionally, a light can be illuminated to indicate that a proper connection has been made, and the light is not illuminated when a proper connection is not made. Alternatively or additionally, an audible sound can be emitted to indicate that a proper connection has been made. In one embodiment, contact sensor receptacles 28 are used with receptor holder 5o illustrated in FIGS. 8-1o. Alternatively or additionally, collimator tube 14 has a contact end receptacle 30 formed therein and operative to receive a contact end of a receptor holder. In one embodiment, contact end receptacle 30 is used with the receptor holder illustrated in FIG.1i.
In yet another embodiment, as illustrated in FIG. 4, collimator tube adapter 34 is used to convert collimator tube 38 to a different shape. As one non-limiting example, collimator tube adapter 34 is used to convert collimator tube 38 from a round shape to a rectangular or other shape.
Collimator tube adapter 34 includes cone 35, cap 36, and spacer 37. Cap 36 can slide to adjust cone 35 to different depths so cone 35 can fit properly inside collimator tube 38. Various mechanisms can be used to lock cap 36 into a desired location on cone 35, such as using detents or a snap ring, to name a few non-limiting examples. Spacer 37 is used to help secure cone 35 inside collimator tube 38, since cone 35 is a different shape than collimator tube 38. Various types of spacers can be used, such as a washer or an o-ring, to name a few non-limiting examples. Cap 36 is operable to form a seal around end 39 of collimator tube 38.
Although not numbered on FIG. 4 ta preserve clarity, in one embodiment, collimator tube adapter 34 has one or more devices integrated within its walls. These devices can be integrated within walls of collimator tube adapter 34 instead of or in addition to devices integrated in collimator tube 38. Collimator tube adapter 34 and collimator tube 38, when used together, can include the same devices and perform the same functions as described herein with respect to collimator tube 14 of image capture device lo on FIG. 1.
As shown in FIG. 5, insert 40 is a step-down insert that can be inserted into collimator tube 42 to make the image capture area smaller.
Alternatively or additionally, insert 40 can be used to add integrated devices to existing collimator tube 42. One non-limiting example of a situation in which insert 40 can be used is to capture an image more precisely on a smaller image receptor than collimator tube 42 would capture alone. Alternatively or additionally, insert 40 can be inserted into collimator tube adapter 34 of FIG. 4 to make the image capture area even smaller. Although not numbered on FIG. 5 to preserve clarity, instead of or in addition to the integrated devices included within the walls of collimator tube 14 or collimator tube adapter 34, insert 40 can optionally include one or more devices integrated within its walls. Insert 40 can optionally have at least one integrated device visible at least in part from end 41. Details 5 about these integrated devices and how they function are described in detail in reference to FIGS. 1 and 4. Alternatively or additionally, insert 40 can be used to add one or more integrated devices to existing collimator tube 42 without reducing the size of the image capture area any more than necessary to house the integrated devices.

10 As shown in FIG. 6-7, in one embodiment, a collimator tube and/or x-ray generator can rotate with respect to the other. Front end of x-ray generator 43 can optionally include a circular or other path 44 with indentations 45. Collimator tube 46 mates with front end of x-ray generator 43 with one or more detents 47 that lock and unlock into one or more of indentations 45 when rotated along path 44. Circular or other path 44 can be a track or other types as would occur to one of ordinary skill in the art so as to allow collimator tube 46 inserted therein to remain physically attached to the front end of x-ray generator 43 and then click into position when coming into contact with one or more detents 47. In an alternative embodiment, the indentations and path are present on collimator tube 46 and one or more detents are present on front end of x-ray generator 43.
Referring now to FIGS. 8-io with continued reference to FIGS 1-2, a first embodiment receptor holder 50 is illustrated. Receptor holder 5o has a holder end 52 that is operative to hold an image receptor 54, such as x-ray film or a digital charge-coupled device (CCD) sensor, as a few non-limiting examples. Receptor holder 5o has an adjustable bar 56 for adjusting the distance of holder end 52 from a connection end 58. In one embodiment, connection end 58 has a square shape. Connection end 58 can also be rectangular, star, cross or round in cross section shape, as a few additional non-limiting examples.

As shown in FIGS. 9 and lo, connection end 58 may have contact sensors 59 that are operative to be connected with collimator tube 14 through contact end receptors 28 formed in collimator tube end 17. In one embodiment, contact sensors 59 are used to ensure that the receptor holder 50 is attached to collimator tube 14 before firing the x-ray generator 12. In this embodiment, contact end receptors 28 are formed with sensors that determine when contact sensors 59 are inserted therein. As one example, each receptor 28 may have two metallic elements that are short circuited by a conductive contact sensor 59 when the connection end 58 is fitted to the collimator tube end 17. Coupling these metallic elements to the firing circuitry of the image capture device 1o can prevent the image capture device io from being fired unless the receptor holder 50 is properly fitted, as will be apparent to those skilled in the art from the above description. In one embodiment, receptor holder 50 is used to capture film-based x-ray images. In another embodiment, receptor holder is used to capture digitized x-ray images. Alternatively or additionally, receptor holder 50 can be used to hold a mirror for reflecting an image to be captured with camera 22, or for reflecting transilluminator light 26 for capture with camera 22.
Referring now to FIG.11. with continued reference to FIGS 1-2, a second embodiment receptor holder 6o is illustrated. Receptor holder 6o has a holder end 62 that is operative to hold a digital sensor 64 or x-ray film 66. Alternatively or additionally, receptor holder 6o can be used to hold a mirror for use with camera 22 or transilluminator light 26, as described hereinabove. Holder end 62 contains a docking port 68 to enable connection of digital sensor 64, which includes a sensor end 70 for electrical mating to docking port 68 of holder end 62. In one embodiment, wiring 72 is connected to docking port 68 at holder end 62. Wiring 72 runs through adjustable bar 74 and connects to contact end 76. Receptor holder 6o has adjustable bar 74 for adjusting the distance of holder end 62 from contact end 76. In one embodin7ent, adjustable bar 74 can slide all the way out and separate from connection frame 78. Contact end 76 can be inserted into contact end receptacle 30 of collimator tube 14 to couple receptor holder 6o to collimator tube 14.
Upon insertion of contact end 76 into contact end receptacle 30, connection frame 78 fits over end 17 of collimator tube 14. In one embodiment, when digital sensor 64 is docked in docking port 68 and x-ray generator 12 is fired, digital data is captured using sensor 64 and travels through wiring 72 to contact end 76 and to frame grabber 24 of collimator tube 14. In another embodiment, digital data captured using sensor 64 travels through wiring 72 to contact end 76 and to radio frequency transmitter 20 of collimator tube 14. In this embodiment, a frame grabber may be present in the remote computer.
In an alternate embodiment, receptor holder 50 (FIG. 8) and/or receptor holder 6o (FIG. 11) has an integrated radio frequency transmitter, such as within the walls of the holder.
FIG. 12 illustrates an embodiment of the system of the present invention, comprising image capture device ro with x-ray generator 12, collimator tube 14, and receptor holder (50 or 6o) attached.
FIG. 13 illustrates an image capture device having an x-ray generator 8o, collimator tube 81, and receptor holder 82 of another embodiment of the present invention. Film alignment ring 86 of receptor holder 82 fits around outer perimeter 87 of collimator tube 81. In one embodiment, notches 89 in receptor holder 82 are tapered and/or indented to help film alignment ring 86 align properly with collimator tube 81. Receptor holder 82 can be coupled to collimator tube 81 by magnetism when magnets 83 of collimator tube 81 come into contact with conductor/magnet interface metal snap ring 84 of receptor holder 82. Alternatively or additionally, snap ring 84 completes the circuit between low voltage electrical contact 85 and magnets 83, causing LED lights 88 to illuminate to indicate that receptor holder 82 is properly coupled to collimator tube 81. Magnets 83 and/or electrical contacts 85 can be located at one or more of various locations on outer perimeter 87 or other locations as would occur to one of ordinary skill in the art. In one embodiment, collimator tube 81 is a replacement for a prior collimator tube of a differing shape, such as a rectangular tube replacing a round tube, to name a non-limiting example.
Alternatively or additionally, magnets 83, electrical contacts 85, and LED
lights 88 can be included in an adaptor that is attached to an existing collimator tube. In one embodiment, receptor holder 82 and collimator tube 81 maintain a magnetic connection sufficient to couple them together but to also to allow them to easily separate from each other upon contact, such as with a doctor or patient touching receptor holder 82. Alternatively or additionally, the positioning bar of receptor holder 82 has notches that allow the user to identify the distance at which the film was positioned, such as to allow for re-taking another image in the future at the same distance.
Although not shown on FIG. 13 to preserve clarity, in one embodiment, collimator tube 81 has one or more devices integrated within its walls. Collimator tube 81 can include the same devices and perform the same functions as described herein with respect to collimator tube 14 of image capture device lo on FIG. 1.
Reference will now be made to FIGS. 14 and 15 with continued reference to FIGS. 1-13 to illustrate a system and method for using image capture device io. The same reference numerals are used to refer to elements that have already been introduced. FIG. 14 is a diagrammatic view of system ioo of one embodiment of the present invention. System 1oo includes computer 102, x-ray generator 12, collimator tube 14, receptor holder (50 or 6o), and video display device 104. It should be understood computer 102 may be arranged to include both a client and server, just a client, or just a server. Furthermore, it should be understood that while one computer is illustrated, more than one computer may be utilized in alternative embodiments.
Computer 102 includes one or more processors or CPUs 1o6 and one or more types of memory 1o8. Each memory io8 may include a removable memory device, although not shown to preserve clarity. The processor io6 may be comprised of one or more components configured as a single unit.

Alternatively, when of a multi-component form, a processor 1.o6 may have one or more components located remotely relative to the others. One or more components of each processor 1o6 may be of the electronic variety defining digital circuitry, analog circuitry, or both. In one embodiment, processor 1o6 is of a conventional, integrated circuit microprocessor arrangement, such as one or more PENTIUM III or PENTIUM 4 processors supplied by INTEL Corporation of 2200 Mission College Boulevard, Santa Clara, Calif. 95052, USA.
Memory io8 (removable or generic) is one form of computer-readable device. Memory 1o8 may include one or more types of solid-state electronic memory, magnetic memory, or optical memory, just to name a few. By way of non-limiting example, memory io8 may include.solid-state electronic Random Access Memory (RAM), Sequentially Accessible Memory (SAM) (such as the First-In, First-Out (FIFO) variety or the Last-In-First-Out (LIFO) variety), Programmable Read Only Memory (PROM), Electronically Programmable Read Only Memory (EPROM), or Electrically Erasable Programmable Read Only Memory (EEPROM); an optical disc memory (such as a DVD or CD ROM); a magnetically encoded hard disc, floppy disc, tape, or cartridge media; or a combination of any of these memory types. Also, memory io8 may be volatile, nonvolatile, or a hybrid combination of volatile and nonvolatile varieties.
Computer 102 includes a display xl.o and one or more input devices 112. Input devices 112 may include one or more operator input devices such as a keyboard, electronic pen input device, mouse, track ball, light pen, to name just a few representative examples. Computer includes a radio frequency (RF) receiver 114 for receiving data transmitted by radio frequency transmitters. Alternatively or additionally, computer 102 includes a printer. In one embodiment, computer 102 is disconnected from computer network 116. In another embodiment, computer 102 is connected to network 116.
Although only one computer 102 is shown to preserve clarity, more computers could also be present. In such instances, multiple computers 102, displays 11o, and input devices 112 may be of the same respective type, or a heterogeneous combination of different computing devices. When more computers are present, computer 102 can be coupled to other computers over computer network 116. Computer network 116 could be in 5 the form of a Local Area Network (I.AN), Municipal Area Network (MAN), Wide Area Network (WAN), such as the Internet, a combination of these, or such other network arrangement as would occur to those skilled in the art.
The one or more features provided by computer 102 can be provided on the same computer or varying other arrangements of computers at one or more 10 physical locations and still be within the spirit of the invention.
X-ray generator 12 is operable to generate x-ray images. Collimator tube 14 serves as the means for focusing x-rays for x-ray device 12, and also includes additional integrated devices. Alternatively or additionally, collimator tube 14 also decreases scatter radiation and/or decreases 15 absorbed radiation, thereby lowering the patient's x-ray dose. In one embodiment, collimator tube 14 has a radio frequency (RF) transmitter 20 that can communicate with RF receiver 114 of computer 102. Alternatively or additionally, collimator tube has an integrated camera 22. In one embodiment, camera 22 is a camera port for allowing an external camera device to plug into collimator tube 14. One non-limiting example of an external camera device includes an intra-oral camera 32 of FIG. 3. In another embodiment, camera 22 is wholly contained within collimator tube 14.
Alternatively or additionally, collimator tube 14 includes frame grabber 24 for capturing of and transmission of still and/or video images to video display device 104 and/or to display i.io of computer 102. Fraine grabber 24 may also transfer data to rf transmitter 20. In one embodiment, collimator tube 14 includes transilluminator light 26. Transilluminator light 26 allows for shining a light through a tooth, body or organ, to name a few non-limiting examples.
X-ray generator 12 and collimator tube 14 are coupled to firing switch 118 and device selector 120. In one embodiment, a single firing switch 118 is used to fire whatever device is selected by device selector 120.
In another embodiment, each image capture device has its own firing switch 118, and thus device selector 120 is not used. In some embodiments, firing switch 118 comprises a pair of switches which must both be pressed to activate the chosen device.
The operating logic of system 1oo can be embodied in signals in programming instructions, dedicated hardware, transmitted over computer network i16, or a combination of these.
As one non-limiting example, system 1oo can be used by a dentist to capture patient images. The image capture apparatus, system and method of the current invention are not limited to use in dentistry, or the field of medicine, as will be understood by one in the art. The current invention can be used in various industries where capturing an x-ray image or digital image would be useful.
Referring additionally to FIG. 15, one embodiment for implementation with system loo is illustrated in flow chart form as procedure 200, which demonstrates a high level process flow diagram of some of the features provided by system 1oo. In one form, procedure 200 is at least partially implemented in the operating logic of system loo.
Procedure 20o begins at start point 201 with selecting an image capture type (stage 202). In one embodiment, image capture type is selected using device selector 120.
If the image to be captured by image capture device 1o is an x-ray image (decision point 204), then a receptor holder (50 or 6o) is attached to collimator tube 14 (stage 2o6). If the image is to be captured on x-ray film (decision point 208), then x-ray film is attached to receptor holder (50 or 6o) (stage 210). If the image is to be captured using digital x-ray (decision point 208), then digital sensor 64 is attached to receptor holder 6o (stage 212). The x-ray generator 12 is then fired using firing switch 118 (stage 214) and the x-ray image(s) and/or video are captured (stage 216) by the film or the sensor 64.

If the image to be captured by image capture device io is not an x-ray image but instead is to be captured by digital camera (decision point 204), then digital camera 22 is fired using firing switch 118 (stage 218) and the digital image(s) and/or video are captured (stage 220).
If image(s) and/or video captured digitally with the x-ray generator 12 or the digital camera 22 are to be transmitted to a remote computer (decision point 222), then RF transmitter 20 sends the digital file(s) to RF
receiver 114 of computer 102 (stage 224). If the image(s) and/or video captured digitally with the x-ray receptor 64 or the digital camera 22 are to be displayed in real-time (decision point 226), then frame grabber board 24 intercepts the images captured with sensor 64 or digital camera 22 accordingly and transmits them (using RF transmitter 20) to computer 102, video display device 104, or computer display 11o (stage 228). The process then ends at stage 230.
Turning now to FIG.16, an image capture device 240 is shown. In one embodiment, image capture device 24o has the same or similar capabilities as described previously with respect to FIG. 13. Image capture device 24o has an x-ray generator 242, collimator tube 244, and receptor holder 246. Receptor holder 246 has connection end 247 that connects to collimator tube 244. Film alignment ring 248 of receptor holder 246 fits around outer perimeter 250 of collimator tube 244. Digital sensor 252 has a contact plug 254 that plugs into receptacle 256 in bite block 258. Bar 26o is removable and couples bite block 258 to alignment ring 248 through arm 264. In one embodiment, bar 26o is metal, although other variations are possible. Data captured with sensor 252 travels through bar 26o, to alignment ring 248. When collimator tube 244 is coupled to alignment ring 248, such as through magnetism, digital data then travels through a conductive path of alignment ring 248 to the low voltage electrical contact(s) 262 of collimator tube.
Turning now to FIG.17, receptor holder 27o has multiple arms 272 for receiving bar 274. Arms 272 allow bar 274 to be positioned in one of a variety of positions for capturing different types of images. In one embodiment, receptor holder 27o has the same features as previously described with respect to receptor holder 246 of FIG.16. Similarly, as shown on FIG.18, receptor holder 280 includes multiple arms 282, namely four in the example illustrated. Arms 282 allow a bar inserted therein to be positioned in one of a variety of positions for capturing different types of images. In one embodiment, connection end 288 of receptor holder 28o includes a metal contact plate 289 for communicating with electrical contacts on a collimator tube. In one embodiment, receptor holder 28o has one or more lights, such as LED lights 284. In one embodiment, indicator lights, such as LED lights, illuminate when receptor holder 28o has mated properly with electrical contacts 262 (see FIG. 17). Alternatively or additionally, receptor holder 28o has a beeper device 286. In one embodiment, beeper device 286 produces a sound to indicate that receptor holder 28o has mated properly with electrical contacts 262 (see FIG. 17).
In one embodiment, receptor holder 28o is reversible.
As shown in FIG. 1g, receptor holder 290 includes a connection end 292 that can be coupled to a collimator tube. Connection end 292 includes at least one arm 294. Arm 294 allows a removable bar or other holder 296 to be coupled to connection end 292. Removable bar 296 includes notches or other markings 297 that allow a distance to be measured from a patient.
Alternatively or additionally, receptor holder includes a measurement guide 298 which allows a distance to be measured from a patient. In one embodiment, measurement guide 298 is reversible, and can be used for left and/or right measurements. As one non-limiting example, markings 297 and/or measurement guide 298 can be used to measure the horizontal and/or vertical distance from a patient that a particular image is taken.
Multiple measurements can be taken over a period of time if desired, such as to track the bone density of a particular patient.
Turning now to FIGS. 20-26, various schematic system diagrams are shown that illustrate image capture systems having various components for capturing digital images in various ways. For example, in the system as shown in FIG. 2o, an alignment ring 300 includes a wireless radio frequency transmitter 302 and a sensor port 303. One of ordinary skill in the art will appreciate that although radio frequency is used as the example wireless protocol with the examples throughout, various other wireless protocols could alternatively or additionally be used, such as infrared, to name one non-limiting example. Transmitter 302 is capable of transmitting data to the wireless receiver 304 of x-ray unit 3o6 and/or to the wireless receiver 308 of computer 31o. Transmitter 302 is coupled to sensor port 303, and sensor port 303 is capable of receiving data from sensor 312. Alignment ring 300 can be coupled to receptor holder 314, and receptor holder can be coupled to collimator tube 316 of x-ray unit 306.
When data is captured with sensor 312, it travels through sensor port 303, to wireless transmitter 302, and then to one or more of wireless receivers 304 or 3o8. Data can then be displayed on one of display screens 318 or 320. Data can alternatively or additionally be transmitted from transmitter 302 to other devices having a wireless radio frequency receiver.
In the system shown in FIG. 21, alignment ring 330 includes a sensor port 332. Sensor port 332 is capable of receiving data from sensor 334. Alignment ring 330 can be coupled to receptor holder 335 and then to sensors 336 of collimator tube 338 on x-ray unit 340. X-ray unit 340 includes a wireless radio frequency transmitter 344 that is capable of transmitting data to the wireless radio frequency receiver 346 of computer 348. Transmitter 344 is coupled to collimator tube 338. When data is captured with sensor 334, it travels through sensor port 332, to sensors 336 of collimator tube 338, and then to viewing screen 35o, and/or to wireless transmitter 344 for transmission to receiver 346 for display on display device 352. Data can alternatively or additionally be transmitted from transmitter 344 to other devices having a wireless radio frequency receiver.
Turning now to FIG. 22, another image capture system is shown. An alignment ring 36o includes a sensor port 362. Sensor port 362 is capable of receiving data from sensor 364. Alignment ring 36o can be coupled to receptor holder 366 and then to sensors 368 of collimator tube insert 370.
Collimator tube insert 370 can be coupled to an existing collimator tube 378 of x-ray unit 38o. An example of collimator tube insert as described in FIG. 22 and some later figures is also described in reference to FIGS. 4 and 5. For example, insert 370 can be used to convert an existing collimator tube to a different shape, such as to convert a round collimator tube to a 5 rectangular collimator tube. Alternatively or additionally, insert 370 can be used to allow digital devices to be added to an existing collimator tube of the same or different shape. Collimator tube insert 370 includes a wireless radio frequency transmitter 372 that is capable of transmitting data to the wireless radio frequency receiver 374 of computer 376. When data is 10 captured with sensor 364, it travels through sensor port 362, to sensors of collimator tube insert 370, and to wireless transmitter 372 for transmission to receiver 374 for display on display device 382. Data can alternatively or additionally be transmitted from transmitter 372 to other devices having a wireless radio frequency receiver.
15 Turning now to FIG. 23, yet another image capture system is illustrated. Collimator tube insert 390 includes a sensor port 392. Sensor port 392 is capable of receiving data from sensor 394. Receptor holder 396 can be coupled to alignment ring 398. Sensor 394 can be coupled to receptor holder 396 to hold sensor 394 in a particular position. Receptor 20 holder 396 can be coupled to collimator tube insert 390. Collimator tube insert 390 can be coupled to an existing collimator tube 400 of x-ray unit 402. Collimator tube insert 390 includes a wireless radio frequency transmitter 404 that is capable of transmitting data to the wireless radio frequency receiver 4o6 of computer 408. When data is captured with sensor 394, it travels through sensor port 392, and to wireless transmitter 404 for transmission to receiver 406 for display on display device 410.
Data can alternatively or additionally be transmitted from transmitter 404 to other devices having a wireless radio frequency receiver.
As shown in FIG. 24, another image capture system is illustrated. X-ray unit 420 includes a sensor port 422. Sensor port 422 is capable of receiving data from sensor 424. Receptor holder 426 can be coupled to alignment ring 428. Sensor 424 can be coupled to receptor holder 426 to hold sensor 424 in a particular position. Receptor holder 426 can be coupled to collimator tube 430 of x-ray unit 420. X-ray unit 420 includes a wireless radio frequency transmitter 432 that is capable of transmitting data to the wireless radio frequency receiver 434 of computer 436. When data is captured with sensor 424, it travels through sensor port 422, and to wireless transmitter 432 for transmission to receiver 434 for display on display device 438. Data can alternatively or additionally be transmitted from transmitter 432 to other devices having a wireless radio frequency receiver.
Turning now to FIG. 25, yet another image capture system is illustrated. Alignment ring 440 includes a wireless radio frequency transmitter 442 and a sensor port 444. Sensor port 444 is capable of receiving data from sensor 446. Receptor holder 448 can be coupled to alignment ring 440. Sensor 446 can be coupled to receptor holder 448 to hold sensor 446 in a particular position. Receptor holder 448 can be coupled to collimator tube insert 450. Collimator tube insert 450 can be coupled to an existing collimator tube 458 of x-ray unit 46o. Wireless transmitter 442 of alignment ring 440 is operable to transmit data to wireless receiver 452 of collimator tube insert 450, and/or transmits data to wireless receiver 454 of computer 456 for display on display device 457.
Wireless transmitter 462 of collimator tube insert 450 is operable to transmit data to wireless receiver 454 of computer 456 for display on display device 457. When data is captured with sensor 446, it travels through sensor port 444, to wireless transmitter 442, to wireless receiver 452, to wireless transmitter 462, and then to wireless receiver 454 for display on display device 457. Data can alternatively or additionally be transmitted from transmitter 442 and/or 462 to other devices having a wireless radio frequency receiver.
Turning now to FIG. 26, an image capture system having a portable sensor unit is illustrated. Portable sensor unit 470 includes a wireless radio frequency transmitter 472 and a sensor port 474. Sensor port 474 is capable of receiving data from sensor 476. Sensor 476 can be coupled to receptor holder 478 to hold sensor 476 in a particular position. Receptor holder 478 can be coupled to x-ray unit 48o. Wireless transmitter 472 of portable sensor unit 470 is operable to transmit data to wireless receiver 482 of x-ray unit 48o, to wireless receiver 484 of computer 486, and/or to wireless receiver 488 of another device 490. Data transmitted to wireless receiver 484 of computer 486 can be displayed on display device 492.
When data is captured with sensor 476, it travels through sensor port 474, to wireless transmitter 472, and then to one or more of receivers 482, 484, or 488. Data can alternatively or additionally be transmitted from transmitter 472 to other devices having a wireless radio frequency receiver.
One of ordinary skill in the art will appreciate that the systems and devices described in FIGS. 20-26 can be used with the image capture devices, collimator tube inserts, receptor holders, and other novel features described in FIGS 1-19. For the sake of simplicity, the detailed description of the devices already described in the prior figures were not repeated in reference to FIGS. 20-26. One of ordinary skill in the art will also appreciate that the systems and devices described in FIGS. 20-26 can also be used with other types of image capture devices that were not described in the prior figures.
In one embodiment of the present invention, an apparatus for use with an x-ray generator is disclosed that comprises a collimator tube coupled to the x-ray generator; a camera coupled to the collimator tube, said camera being operable to capture digital images; and a radio frequency transmitter operably coupled to the camera, said radio frequency transmitter being operable to transmit digital images captured by the camera to a remote receiver.
In another embodiment of the present invention, an apparatus for use with an x-ray generator is disclosed that comprises a collimator tube coupled to the x-ray generator; a digital sensor operable to capture x-ray images; and a frame grabber coupled to the collimator tube, said frame grabber operatively coupled to the sensor and operable to capture images for display on an external display device.

In yet a further embodiment of the present invention, a method is disclosed that comprises providing an apparatus having a plurality of devices and a collimator tube, wherein one of the image capturing devices is an x-ray generator and one of the image capturing devices is coupled to the collimator tube; from the apparatus, receiving a selection of an image capture device to use for capturing an image; receiving a fire command to fire the image capture device; and capturing at least one image with the image capture device.
In another embodiment of the present invention, a system is disclosed that comprises: an external device, said external device having at least a display; an x-ray generator; a collimator tube coupled to the x-ray generator, said collimator tube having at least one integrated digital image capture device; means for receiving a fire command and capturing at least one image with the at least one integrated digital image capture device; and means for transmitting the captured image to the external device upon receiving the fire command.
In another embodiment, an apparatus for use with an x-ray generator is disclosed that comprises a collimator tube coupled to the x-ray generator, said collimator tube having one or more walls; and at least one device contained within said one or more walls of the collimator tube.
In yet a further embodiment, an apparatus for use with an x-ray generator is disclosed that comprises: a collimator tube coupled to the x-ray generator; and a plurality of magnets operable to couple the collimator tube to a receptor holder through magnetism.
In yet a further embodiment, an apparatus for use with an X-ray generator is disclosed that comprises a collimator tube having an end, said collimator tube being coupled to the X-ray generator; a receptor holder adapted to be coupled on said end of said collimator tube, said receptor holder operable to hold an image receptor; and an indicator which indicates when said receptor holder is coupled on the end of said collimator tube.
In yet a further embodiment, a system is disclosed that comprises an X-ray generator; a collimator tube coupled to the x-ray generator; a receptor holder adapted to be coupled to the collimator tube; an X-ray sensor operable to capture an X-ray image; and a sensor docking port on the receptor holder, the sensor docking port operable to make an electrical connection with the X-ray sensor when the X-ray sensor is docked on the docking port, the sensor docking port further operable to secure the X-ray sensor in position to receive a radiation does emitted from the X-ray generator.
In yet a further embodiment, a system is disclosed that comprises an X-ray generator; a collimator tube coupled to said x-ray generator; a receptor holder adapted to be coupled to said collimator tube; an X-ray sensor operable to capture an X-ray image; and a radio frequency transmitter operable to receive data from said sensor, said radio frequency transmitter being further operable to transmit data from said X-ray sensor.
In yet a further embodiment of the present invention, an apparatus for use with an x-ray generator having a collimator tube, the apparatus disclosed comprises a collimator insert, said collimator insert being operable to be coupled to the collimator tube to reduce a size of the collimator tube; wherein said collimator insert extends to an interior space of the collimator tube when said collimator insert is coupled to said collimator tube.
In yet a further embodiment of the present invention, a receptor holder adapted to hold an X-ray sensor and is also adapted to be used with a collimator tube is disclosed that comprises: a connection end operable to couple the receptor holder to a collimator tube; a bar coupled to the connection end; a holder end coupled to the bar, a sensor docking port proximate to the holder end, the sensor docking port operable to make an electrical connection with the X-ray sensor when docked on the docking port.
In another embodiment of the present invention, a receptor holder adapted for use with a collimator tube having a contact sensor receptacle and attached to an X-ray generator is disclosed comprising: a connection end operable to couple the receptor holder to the collimator tube; a contact sensor on the connection end adapted to connect with the contact sensor receptacle when the connection end is coupled to the collimator tube; a bar coupled to the connection end; and a holder end coupled to the bar.
In yet another embodiment of the present invention, an apparatus for 5 use with a receptor holder is disclosed comprising: a connection end operable to couple a receptor holder to a collimator tube; and an indicator which indicates when said connection end is coupled on the collimator tube.
In yet another embodiment of the present invention, an apparatus is 10 disclosed for use with an X-ray generator which includes a collimator tube, the apparatus comprising: a connection end operable to couple the apparatus to the collimator tube; and a measurement guide to allow for measuring a first distance between a patient and a position at which an image is captured.
15 In another embodiment of the present invention, an apparatus is disclosed for coupling a receptor holder to a collimator tube, the apparatus comprises: a removable alignment ring, said alignment ring being operable to couple a connection end of a receptor holder to a collimator tube; and a sensor port on the alignment ring, said sensor port being operable to 20 communicate with a sensor for capturing digital data.
In yet a further embodiment of the present invention, an x-ray generator is disclosed that comprises: a collimator tube; an X-ray sensor electrically coupled to the collimator tube; a wireless communicator operably coupled to the X-ray sensor to communicate data captured by the 25 X-ray sensor; a screen operably coupled to the wireless communicator an operable for viewing images captured by the X-ray sensor.
In another embodiment of the present invention, an apparatus is disclosed for use with an x-ray generator, the apparatus comprising: a collimator insert, said collimator insert being operable to be coupled to an existing collimator tube; and wherein said collimator insert includes a radio frequency transmitter, said transmitter being operable to transmit digital data to an external device having a radio frequency receiver.

In yet another embodiment of the present invention, an apparatus is disclosed for use with an x-ray generator, the apparatus comprising: a portable sensor unit; wherein the portable sensor unit includes a sensor port, said sensor port being operable to communicate with a sensor for capturing digital data; and wherein the portable sensor unit includes a radio frequency transmitter, said transmitter being coupled to the sensor port, and said transmitter being operable to transmit the digital data captured with the sensor to an external device having a radio frequency receiver.
In yet another embodiment of the present invention a method is disclosed that comprises the steps of: providing an X-ray generator having a collimator tube; providing an apparatus for use with an X-ray generator, the apparatus comprising: a connection end operable to couple the apparatus to the collimator tube; and a measurement guide to allow for measuring a first distance between a patient and a position of at which an X-ray image is captured; positioning the X-ray generator to take a particular type of dental image of a patient; using the measurement guide to determine the first distance; capturing a first dental image of the patient;
recording the first distance at which the first dental image was taken;
recording the particular image type of the first dental image taken of the patient; positioning the X-ray generator to take the same particular type of dental image at the same first distance of the same patient at a later time;
using the measurement guide to determine the first distance at the later time; capturing a second dental image of the particular type of dental image of the same patient at a later time; and comparing the first dental image to the second dental image to track changes in the patient's oral health.
All publications, prior applications, and other documents cited herein are hereby incorporated by reference in their entirety as if each had been individually incorporated by reference and fully set forth.
A person of ordinary skill in the computer software art will recognize that the client and/or server arrangements could be organized differently to include fewer or additional options or features than as portrayed in the illustrations and still be within the spirit of the invention.
While the invention has been illustrated and described in detail in the drawings and foregoing description, the same is to be considered as illustrative and not restrictive in character, it being understood that only the preferred embodiment has been shown and described and that all equivalents, changes, and modifications that come within the spirit of the inventions as described herein and/or by the following claims are desired to be protected.

Claims

1. An apparatus for use with an x-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480), the apparatus comprising:
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) coupled to the x-ray generator;
a camera (22) coupled to the collimator tube, said camera being operable to capture digital images; and a wireless transmitter (20, 302, 344, 372, 404, 432, 442, 462, 472) operably coupled to the camera, said wireless transmitter being operable to transmit digital images captured by the camera to a remote receiver (304, 308, 346, 374, 406, 434, 454, 482, 484).

2. The apparatus of claim 1, wherein the collimator tube comprises one or more walls (18) and the camera and the wireless transmitter are contained within said one or more walls of the collimator tube.

3. The apparatus of claim 1, wherein the camera is a camera port (22) that is operable to receive an external camera.

4. The apparatus of claim 3, wherein the external camera is an intra-oral camera (32).

5. The apparatus of claim 1, further comprising:
a frame grabber (24) operably coupled to the camera, said frame grabber being operable to capture images from the camera for display on an external display device (104, 110, 320, 352, 382, 410, 438, 457, 492).

6. The apparatus of claim 5, wherein the collimator tube comprises one or more walls and the frame grabber is contained within said one or more walls of the collimator tube.

7. The apparatus of claim 1, further comprising:
a transilluminator light (26) coupled to the collimator tube.

8. The apparatus of claim 7, wherein the collimator tube comprises one or more walls and the transilluminator light is contained within said one or more walls of the collimator tube.

9. The apparatus of claim 1, further comprising:
a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 476) coupled to the collimator tube, said receptor holder being operable to hold an x-ray film (54, 66) for capturing an x-ray image.

10. The apparatus of claim 1, further comprising:
a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 476) coupled to the collimator tube, said receptor holder being operable to hold a digital x-ray sensor (54, 64, 252, 312, 334, 364, 394, 424, 446, 478) and to couple the sensor to the collimator tube.

11. An apparatus for use with an x-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480), the apparatus comprising:
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) coupled to the x-ray generator;
a digital sensor (54, 64, 252, 312, 334, 364, 394, 424, 446, 478) operable to capture x-ray images; and a frame grabber (24) coupled to the collimator tube, said frame grabber operatively coupled to the sensor and operable to capture images for display on an external display device (104, 110, 318, 320, 352, 382, 410, 438, 457, 492).

12. The apparatus of claim 11, further comprising:
a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) coupled to the collimator tube, said receptor holder being operable to hold the sensor and to couple the sensor to the frame grabber through a connecting wire (72), whereby a digital x-ray image can be captured.

13. The apparatus of claim 11, wherein the collimator tube comprises one or more walls (18) and the frame grabber is contained within said one or more walls of the collimator tube.

14. A method comprising:
providing an apparatus having a plurality of image capturing devices and a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458), wherein one of the image capturing devices is an x-ray generator (12, 43, 80, 242, 3o6, 340, 380, 402, 420, 460, 480), and one of the image capturing devices is coupled to the collimator tube;
receiving a selection of on of the plurality of image capture devices to use for capturing an image;
receiving a fire command to fire the image capture device; and capturing at least one image with the selected image capture device.

15. The method of claim 14, wherein if the selected image capture device is the x-ray generator with film x-ray, performing the following steps prior to receiving the fire command:
attaching a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) to the collimator tube and attaching an x-ray film (54, 66) to the receptor holder.

16. The method of claim 14, further comprising:
if the selected image capture device is the x-ray generator with digital x-ray sensor, performing the following steps:
prior to receiving the fire command, attaching a receptor holder to the collimator tube and attaching a digital sensor (54, 64, 252, 312, 334, 364, 394, 424, 446, 476) to the receptor holder; and as part of said capturing step, using a frame grabber (24) to capture the at least one image for display on an external display device (104, 110, 318, 320, 352, 382, 410, 438, 457, 492)

17. The method of claim 14, further comprising:
if the selected image capture device is digital camera (22), performing said capturing step using a digital camera coupled to the collimator tube;

if the at least one image is to be stored in digital form, transmitting the at least one image to a computer device (102) with a wireless transmitter (114); and if the image is to be displayed real-time, using a frame grabber (24) to communicate with the digital camera (22) in said capturing step to enable capturing of the at least one image for display on an external display device (104, 110).

18. The method of claim 14, further comprising:
if the selected image capture device is intra-oral camera (32), performing the following steps prior to receiving the fire command:
attaching a receptor holder (50, 60) to the collimator tube;
attaching a mirror to the receptor holder;
illuminating a transilluminator (26) light such that the emitted light shines through a tooth; and performing said capture step to capture an image of the transilluminated tooth with the intra-oral camera.

19. A system comprising:
an external device (104, 110, 306, 320, 352, 382, 410, 438, 457, 492), said external device having at least a display (104, 110, 318, 320, 352, 382, 410, 438, 457, 492);
an x-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480);
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) coupled to the x-ray generator, said collimator tube having at least one integrated digital image capture device (22, 24, 32);
means for receiving a fire command and capturing at least one image with the at least one integrated digital image capture device;
and means for transmitting (20, 302, 344, 372, 404, 432, 442, 462, 472) the captured image to the external device upon receiving the fire command.

20. The system of claim 19, wherein the external device is a computer (102, 408, 456) and wherein the at least one captured image is transmitted to the computer from the collimator tube using a wireless transmitter (20, 404, 462) integrated with the collimator tube.

21. The system of claim 19, wherein the at least one captured image is transmitted to the external device from the collimator tube using a frame grabber (24) integrated with the collimator tube.

22. The system of claim 19, wherein the external device is a video display device.

23. The system of claim 19, wherein the external device is a computer having a display.

24. An apparatus for use with an x-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480), the apparatus comprising:
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) coupled to the x-ray generator, said collimator tube having one or more walls; and at least one device (20, 22, 24, 26, 88, 336, 368, 372, 392, 404, 422, 452, 462) contained within said one or more walls of the collimator tube.

25. The apparatus of claim 24, wherein the at least one device includes a camera (22, 32), said camera being operable to capture digital images.

26. The apparatus of claim 24, further comprising:
a digital sensor (54, 64, 252, 312, 334, 364, 394, 424, 446, 476) operable to capture x-ray images; and wherein the at least one device includes a wireless transmitter (20, 302, 344, 372, 404, 432, 442, 462, 472), said wireless transmitter being operable to transmit digital images captured with the digital sensor to a remote receiver.

27. The apparatus of claim 24, wherein the at least one device includes a camera (22, 32) and a transilluminator light (26), said camera being operable to capture digital images, and said transilluminator light being operable to illuminate an area to be captured by the camera.

28. The apparatus of claim 24, wherein the collimator tube comprises:
an original collimator tube (14, 38, 42, 81, 244, 458) of a first shape;
a collimator tube adapter (34, 40, 450) of a second shape coupled to the original collimator tube to form a modified collimator tube; and wherein said at least one device is contained within one or more walls of the collimator tube adapter.

29. The apparatus of claim 28, wherein the collimator tube adapter has a cap (36) for securing the collimator tube adapter to an end (39) of the original collimator tube, and wherein the collimator tube adapter has a spacing means (37) to allow a body portion (35) of the collimator tube adapter to remain securely in place inside an inner periphery of the original collimator tube when the cap (36) is secured over the end.

30. The apparatus of claim 24, wherein the x-ray generator was originally designed to work with a detachable collimator tube (34, 40, 450) formed of a first shape, and wherein the collimator tube is formed of a second shape.

31. The apparatus of claim 24, wherein the collimator tube comprises:
an original collimator tube (14, 38, 42, 81, 458);
a step-down insert (34,40,450) coupled to the original collimator tube to reduce a size of the original collimator tube; and wherein said at least one device is contained within one or more walls of the collimator tube adapter.

32. The apparatus of claim 24, wherein the collimator tube is operable to rotate in position with respect to the x-ray generator.

33. An apparatus for use with an x-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460,480), the apparatus comprising:
a collimator tube (14, 38, 42, 46, 181, 244) coupled to the x-ray generator; and a plurality of magnets (83) operable to couple the collimator tube to a receptor holder through magnetism.

34. The apparatus of claim 33, wherein:
said plurality of magnets are coupled to said collimator tube; and a metallic plate (84, 289) coupled to the receptor holder, said metallic plate being adapted to couple with said magnets.

35. An apparatus for use with an X-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480), the apparatus comprising:
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) having an end, said collimator tube being coupled to the X-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480);
a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) adapted to be coupled on said end of said collimator tube, said receptor holder operable to hold an image receptor (54, 64, 66, 252, 312, 334, 364, 394, 424, 446, 478); and an indicator (28, 59, 85, 88, 284) which indicates when said receptor holder is coupled on the end of said collimator tube.

36. The apparatus of claim 35, wherein said indicator includes:
a contact sensor receptacle (28, 85) on said collimator tube;
a contact sensor (59) on said receptor holder; and wherein said contact sensor makes a connection with said contact sensor receptacle when said receptor holder is coupled on the end of said collimator tube.

37. The apparatus of claim 35, wherein said indicator is a light (88, 284) on said collimator tube which illuminates when said receptor holder is coupled on the end of said collimator tube.

38. The apparatus of claim 35, wherein said indicator emits an audible sound when said receptor holder is coupled on the end of said collimator tube.

39. The apparatus of claim 35, wherein said indicator prohibits the X-ray generator from firing unless said receptor holder is coupled on the end of said collimator tube.

40. A system comprising:
an X-ray generator(12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480);
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) coupled to said x-ray generator;
a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) adapted to be coupled to said collimator tube;
an X-ray sensor (54, 64, 66, 252, 312, 334, 364, 394, 424, 446, 476) operable to capture an X-ray image; and a sensor docking port (68, 256, 303, 332, 362, 444) on said receptor holder, said sensor docking port operable to make an electrical connection with said X-ray sensor when said X-ray sensor is docked on the docking port, said sensor docking port further operable to secure said X-ray sensor in position to receive a radiation dose emitted from said X-ray generator;

41. The system of claim 40, further comprising:
a display (104, 110, 320, 352, 382, 410, 438, 457, 492) operable to receive data from said sensor docked on said sensor docking port, said display further operable to display said X-ray image captured by said X-ray sensor.

42. The system of claim 40, further comprising:
a wireless transmitter(20, 302, 344, 372, 404, 432, 442, 462, 472) operable to receive data from said sensor docked on said sensor docking port, said wireless transmitter being further operable to transmit data from said X-ray sensor.

43. The system of claim 42, further comprising:
a display (104, 110, 320, 352, 382, 410, 438, 457, 492) operable to receive data from said sensor docked on said sensor docking port, said display further operable to display said X-ray image captured by said X-ray sensor.

44. The system of claim 40, wherein said sensor docking port is electrically connected to said collimator tube when said receptor holder is coupled to said collimator tube.

45. The system of claim 40, further comprising:
a contact end (76) on said receptor holder;
a contact end receptacle (30) in said collimator tube adapted to be coupled to said contact end when said receptor holder is coupled to said collimator tube; and wherein said contact end receptacle is operable to make an electrical connection to said sensor docking port through said contact end when said receptor holder is coupled to said collimator tube.

46. A system comprising:
an X-ray generator(12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480);
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) coupled to said x-ray generator;
a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) adapted to be coupled to said collimator tube;
an X-ray sensor (54, 64, 66, 252, 312, 334, 364, 394, 424, 446, 476) operable to capture an X-ray image; and a wireless transmitter (20, 302, 344, 372, 404, 432, 442, 462, 472) operable to receive data from said sensor, said wireless transmitter being further operable to transmit data from said X-ray sensor.

47. The system of claim 46 further comprising:
a sensor docking port (68, 256, 303, 332, 362, 444) on said receptor holder, said sensor docking port operable to make an electrical connection with said X-ray sensor when said X-ray sensor is docked on the docking port, said sensor docking port further operable to secure said X-ray sensor in position to receive a radiation dose emitted from said X-ray generator.

48. The system of claim 46 further comprising:
a display (104, 110, 320, 352, 382, 410, 438, 457, 492) operable to display said X-ray image captured by said X-ray sensor.

49. An apparatus for use with an x-ray generator (10, 380, 402, 460) having a collimator tube(14, 38, 42, 378, 400, 458), the apparatus comprising:
a collimator insert (34, 40, 370, 390, 450), said collimator insert being operable to be coupled to the collimator tube to reduce a size of the collimator tube; and wherein said collimator insert extends to an interior space of the collimator tube when said collimator insert is coupled to said collimator tube.

50. The apparatus of claim 49, wherein said collimator insert extends substantially the entire length of the collimator tube when said collimator insert is coupled to said collimator tube.

51. The apparatus of claim 49, wherein the collimator tube has a first shape in cross-section and said collimator insert has a second shape in cross-section different than said first shape.

52. The apparatus of claim 49, wherein the image capture area of said collimator insert is smaller than the image capture area of the collimator tube.

53. The apparatus of claim 49, further comprising:
a cap (36) on said collimator insert operable to form a seal around an end of the collimator tube; and a spacer (37) on said collimator insert operable to secure said collimator insert inside the collimator tube.

54. The apparatus of claim 53, wherein said cap is operable to slide along said collimator insert to accommodate different lengths of the collimator tube.

55. The apparatus of claim 49, future comprising:
a device (20, 22, 24, 26, 88, 336, 368, 372, 392, 404, 422, 452, 462) contained within a wall of said collimator insert.

56. The apparatus of claim 55, wherein said device is a digital camera (22, 32).

57. The apparatus of claim 55, further comprising:
a digital sensor (54, 64, 252, 312, 334, 364, 394, 424, 446, 476) operable to capture X-ray images; and wherein said device is a wireless transmitter (20, 404, 462) operable to transmit digital images captured with the digital sensor to a remote receiver.

58. A receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) adapted to hold an X-ray sensor (54, 64, 66, 252, 312, 334, 364, 394, 424, 446, 476), the receptor holder also adapted to be used with a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458), the receptor holder comprising:
a connection end (58, 78, 86, 247, 248, 288, 292, 300) operable to couple the receptor holder to the collimator tube;
a bar (56, 74, 260, 274, 296) coupled to said connection end;
a holder end (52, 62, 256) coupled to the bar; and a sensor docking port (68, 256, 303, 332, 362, 444) proximate to said holder end, said sensor docking port operable to make an electrical connection with the X-ray sensor when docked on the docking port.

59. The receptor holder of claim 58, further comprising a contact end (76) coupled to said bar proximate to said connection end, said contact end being operable to make an electrical connection with the collimator tube.

60. The receptor holder of claim 58, wherein the holder end is adapted to hold a digital charge-coupled sensor.

61. The receptor holder of claim 58, further comprising a contact sensor (59) on the connection end adapted to connect with a contact sensor receptacle (28, 85) in the collimator tube when said connection end is coupled to the collimator tube.

62. The receptor holder of claim 58, wherein said electrical connection is an edge contact connection (70, 254).

63. The receptor holder of claim 58, further comprising a wireless transmitter (20, 302, 344, 372, 404, 432, 442, 462, 472), said wireless transmitter being operable to transmit digital images to a computer device.

64. The receptor holder of claim 58, wherein the holder end is adapted to hold an x-ray film (54, 66).

65. The receptor holder of claim 58, wherein the connection end is square in cross section shape.

66. The receptor holder of claim 58, wherein the connection end is rectangular in cross section shape.

67. The receptor holder of claim 58, wherein the bar is adjustable.

68. The receptor holder of claim 67, wherein the bar includes notches (297) which are adapted to indicate the distance between the connection end and the holder end.

69. The receptor holder of claim 58, wherein the holder end is adapted to hold a mirror.

70. The receptor holder of claim 58, wherein the connection end includes a removable film alignment ring.

71. The receptor holder of claim 70, wherein the connection end is coupled to the bar through the ring.

72. The receptor holder of claim 58, wherein the connection end operable to couple the receptor holder to the collimator tube through magnetism.

73. The receptor holder of claim 58, wherein the connection end includes at least one arm, said arm having an opening for receiving the bar.

74. The receptor holder of claim 73, wherein the at least one arm includes a plurality of arms, said arms being operable to allow the bar to be positioned in one of multiple positions to aid in capturing different types of images.

75. A receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) adapted for use with a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458) and an X-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480); the collimator tube having a contact sensor receptacle (28, 85); the receptor holder comprising:
a connection end (58, 78, 86, 247, 248, 288, 292, 300) operable to couple the receptor holder to the collimator tube;
a contact sensor (59) on said connection end adapted to connect with the contact sensor receptacle when said connection end is coupled to the collimator tube;
a bar (56, 74, 260, 274, 296) coupled to said connection end; and a holder end (52, 62, 256) coupled to the bar.

76. The receptor holder of claim 75, wherein a light (88, 284) illuminates when said contact sensor connects with the contact sensor receptacle.

77. The receptor holder of claim 75, wherein an audible sound is emitted when said contact sensor connects with the contact sensor receptacle.

78. The receptor holder of claim 75, wherein the X-ray generator will not fire unless said contact sensor is connected with the contact sensor receptacle.

79. The receptor holder of claim 75, further comprising:
a sensor docking port (68, 256, 303, 332, 362, 444) located in the holder end, said sensor docking port operable to make an electrical connection with an X-ray sensor docked on the docking port.

80. The receptor holder of claim 79, further comprising:
a wireless transmitter (20, 302, 344, 372, 404, 432, 442, 462, 472) electrically mated to the sensor docking port when said connection end is coupled to the collimator tube; and wherein said wireless transmitter is operable to transmit digital data from a sensor docked on the docking port.

81. The receptor holder of claim 75, wherein the receptor holder is adapted to be magnetically coupled to the collimator tube when the receptor holder is positioned adjacent to the collimator tube.

82. The receptor holder of claim 81, further comprising:
a metal snap ring (84) coupled to the connecting end;
wherein said snap ring contacts a magnet (83) in the collimator tube when the receptor holder is positioned adjacent to the collimator tube; and wherein said snap ring is said contact sensor.

83. An apparatus for use with a receptor holder, the apparatus comprising:
a connection end (58, 78, 86, 247, 248, 288, 292, 300) operable to couple a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) to a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458); and an indicator (88, 284, 286) which indicates when said connection end is coupled on the collimator tube.

84. The apparatus of claim 83, wherein the connection end includes a metal contact plate (84, 289) for allowing the apparatus to be coupled to the collimator tube by magnetism.

85. The apparatus of claim 83, wherein the indicator includes a light (88, 284) that illuminates when said connection end is coupled on the collimator tube.

86. The apparatus of claim 83, wherein the indicator includes a beeper device (286) that emits an audible sound when said connection end is coupled on the collimator tube.

87. The apparatus of claim 83, wherein said connection end includes a plurality of arms (264, 272, 282, 294), said arms being operable to allow a removable bar (56, 74, 260, 274, 296) to be coupled to the connection end in one of multiple positions to allow capturing different images from a sensor (54, 64, 66, 252, 312, 334, 364, 394, 424, 446, 476) on a holder end (52, 62, 256) coupled to the bar.

88. An apparatus for use with an X-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480), the X-ray generator including a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458), the apparatus comprising:
a connection end (58, 78, 86, 247, 248, 288, 292, 300) operable to couple the apparatus to the collimator tube; and a measurement guide (297, 298) to allow for measuring a first distance between a patient and a position at which an X-ray image is captured.

89. The apparatus of claim 88, further including a second measurement guide (297, 298) operable for measuring a second distance between the patient and the position of the collimator tube at which the X-ray image is captured.

90. The apparatus of claim 88, wherein said measurement guide is proximate to said connection end.

91. An apparatus for coupling a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) to a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458), the apparatus comprising:
a removable alignment ring (86, 248, 300, 330, 360, 398, 428, 440), said alignment ring being operable to couple a connection end (58, 78, 86, 247, 248, 288, 292, 300) of the receptor holder to the collimator tube; and a sensor port (303, 332, 362, 444) on the alignment ring, said sensor port being operable to communicate with a sensor (312, 334, 364, 446) for capturing digital data.

92. The apparatus of claim 91, wherein said alignment ring includes a wireless transmitter (302, 442), said transmitter being coupled to the sensor port, and said transmitter being operable to transmit data captured with the sensor to an external device (306, 310, 450, 456) having a wireless receiver (304, 308, 452, 454).

93. The apparatus of claim 92, wherein the external device having a wireless receiver is an x-ray unit (306).

94. The apparatus of claim 92, wherein the external device having a wireless receiver is a computer (310, 456).

95. The apparatus of claim 92, wherein the external device having a wireless receiver is a collimator insert (450).

96. The apparatus of claim 91, further comprising:
a plurality of arms (264, 272, 282, 294), said arms being operable to allow a removable bar (56, 74, 260, 274, 296) to be coupled to the connection end in one of multiple positions to aid in capturing different types of images from the sensor on a holder (52, 62, 256) coupled to the bar.

97. An x-ray generator comprising:
a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458);
an x-ray sensor (54, 64, 252, 312, 334, 364, 394, 424, 446, 478) electrically coupled to said collimator tube;
a wireless communicator (20, 302, 344, 372, 404, 432, 442, 452, 462, 472) operably coupled to the x-ray sensor to communicate data captured by the x-ray sensor; and a screen (104, 110, 320, 352, 382, 410, 438, 457, 492) operably coupled to the wireless communicator and operable for viewing images captured by the x-ray sensor.

98. The x-ray generator of claim 97, wherein said wireless communicator is a receiver (452), and wherein said receiver is operable to receive digital data from a receptor holder having a wireless transmitter (442).

99. The x-ray generator of claim 97, wherein said wireless communicator is a transmitter (20, 302, 344, 372, 404, 432, 442, 462, 472), and wherein said transmitter is operable to transmit digital data to an external device (102, 306, 310, 348, 376, 408, 436, 456) having a wireless receiver (114, 304, 308, 346, 374, 406, 434, 454).

100. The x-ray generator of claim 99, wherein the external device having a wireless receiver is a computer (102, 310, 348).

101. The x-ray generator of claim 97, wherein the collimator tube includes a sensor port (30, 85, 262, 336, 422), said sensor port being operable to communicate with the x-ray sensor for capturing digital data.

102. An apparatus for use with an x-ray generator, the apparatus comprising:
a collimator insert (34, 40, 370), said collimator insert being operable to be coupled to an existing collimator tube; and wherein said collimator insert includes a wireless transmitter (20, 372), said transmitter being operable to transmit digital data to an external device (102, 376) having a wireless receiver (114, 374).

103. The apparatus of claim 102, wherein said collimator insert includes at least one sensor (30, 85, 262, 368) for communicating with a receptor holder (50, 60, 82, 246, 270, 280, 290, 314, 335, 366, 396, 426, 448, 478) to receive digital data.

104. The apparatus of claim 102, wherein said collimator insert includes a sensor port (30, 392), said sensor port being operable to communicate with a sensor (54, 64, 394) for capturing digital data.

105. An apparatus for use with an x-ray generator (480), the apparatus comprising:
a portable sensor unit (470);
wherein the portable sensor unit includes a sensor port (474), said sensor port being operable to communicate with a sensor (476) for capturing digital data; and wherein the portable sensor unit includes a wireless transmitter (472), said transmitter being coupled to the sensor port (474), and said transmitter being operable to transmit the digital data captured with the sensor (476) to an external device (480, 486) having a wireless receiver (482, 484).

106. The apparatus of claim 105, wherein the external device having a wireless receiver is a computer (486).

107. The apparatus of claim 105, wherein the external device having a wireless receiver is an x-ray unit (480).

108. A method comprising the steps of:
a) providing an X-ray generator (12, 43, 80, 242, 306, 340, 380, 402, 420, 460, 480) having a collimator tube (14, 38, 42, 46, 81, 244, 316, 338, 378, 400, 430, 458);
b) providing an apparatus for use with an X-ray generator, the apparatus comprising:

a connection end (58, 78, 86, 247, 248, 288, 292, 300) operable to couple the apparatus to the collimator tube; and a measurement guide (297, 298) to allow for measuring a first distance between a patient and a position of at which an X-ray image is captured;
c) positioning the X-ray generator to take a particular type of dental image of a patient;
d) using the measurement guide to determine the first distance;
e) capturing a first dental image of the patient;
f) recording the first distance at which the first dental image was taken;
g) recording the particular image type of the first dental image taken of the patient;
h) positioning the X-ray generator to take the same particular type of dental image at the same first distance of the same patient at a later time;
i) using the measurement guide to determine the first distance at the later time;
j) capturing a second dental image of the particular type of dental image of the same patient at a later time; and k) comparing the first dental image to the second dental image to track changes in the patient's oral health.