None.
The present disclosure relates generally to image forming devices and more particularly to a toner cartridge having positional control features.
In order to reduce the premature replacement of components traditionally housed within a toner cartridge for an image forming device, toner cartridge manufacturers have begun to separate components having a longer life from those having a shorter life into separate replaceable units. Relatively longer life components are positioned in one replaceable unit (an imaging unit). The image forming device's toner supply, which is consumed relatively quickly in comparison with the components housed in the imaging unit, is provided in a reservoir in a separate replaceable unit in the form of a toner cartridge that feeds toner to the imaging unit. In this configuration, the number of components housed in the toner cartridge is reduced in comparison with traditional toner cartridges.
It is important that the toner cartridge is precisely aligned within the image forming device. If the toner cartridge is misaligned, a toner outlet port on the toner cartridge may not seal against a port that receives toner from the toner cartridge potentially causing toner leakage which may result in mechanical and print quality defects. Further, if the toner cartridge is misaligned, a drive gear on the toner cartridge may not achieve proper gear mesh with a corresponding drive gear in the image forming device. The toner cartridge must also be rigidly held in place after it is installed in the image forming device in order to prevent the positional alignment of the toner cartridge from being disturbed during operation. The requirement for tight positional control must be balanced with the need to permit a user to easily load and unload the toner cartridge into and out of the image forming device. Accordingly, it will be appreciated that precise alignment of the toner cartridge and relatively simple insertion and removal of the toner cartridge into and out of the image forming device is desired.
A toner cartridge for use in an electrophotographic image forming device according to one example embodiment includes a housing having a top, a bottom, a front and a rear positioned between a first side and a second side of the housing. The housing has a reservoir for holding toner. An outlet port is in fluid communication with the reservoir and faces downward on the front of the housing for exiting toner from the toner cartridge. The toner cartridge. The toner delivery system includes a toner delivery system for transferring toner from the reservoir out of the outlet port that includes a main input gear for providing rotational power to the toner delivery system. A top portion of the main input gear is exposed at the first side of the housing for mating with a corresponding drive gear in the image forming device when the toner cartridge is installed in the image forming device. The main input gear includes a rotational axis. A first alignment guide extends outward from the first side of the housing and runs along a front-to-rear dimension of the housing. A second alignment guide extends outward from the second side of the housing and runs along the front-to-rear dimension of the housing. The second alignment guide is parallel to and aligned in a vertical dimension of the housing with the first alignment guide. A third alignment guide and a fourth alignment guide extend outward from the first side of the housing. The third alignment guide is spaced toward the front of the housing from the fourth alignment guide. Each of the third alignment guide and the fourth alignment guide includes a respective bottom surface that is unobstructed to permit the respective bottom surface to sit on top of a corresponding guide surface in the image forming device to control a vertical position of the toner cartridge when the toner cartridge is installed in the image forming device. The bottom surface of the third alignment guide is aligned with the bottom surface of the fourth alignment guide in the vertical dimension of the housing. The bottom surfaces of the third and fourth alignment guides are positioned higher than the first and second alignment guides. The bottom surfaces of the third and fourth alignment guides are positioned higher than the rotational axis of the main input gear and are positioned closer to the rear of the housing than the rotational axis of the main input gear is to the rear of the housing.
A toner cartridge for use in an electrophotographic image forming device according to another example embodiment includes a housing having a top, a bottom, a front and a rear positioned between a first side and a second side of the housing. The housing has a reservoir for holding toner. An outlet port is in fluid communication with the reservoir and faces downward on the front of the housing for exiting toner from the toner cartridge. The toner cartridge includes a toner delivery system for transferring toner from the reservoir out of the outlet port. The toner delivery system includes a main input gear for providing rotational power to the toner delivery system. A top portion of the main input gear is exposed at the first side of the housing for mating with a corresponding drive gear in the image forming device when the toner cartridge is installed in the image forming device. The main input gear includes a rotational axis. A first alignment guide extends outward from the second side of the housing and runs along a front-to-rear dimension of the housing. The first alignment guide includes a bottom surface that is unobstructed to permit the bottom surface of the first alignment guide to sit on top of a corresponding first guide surface in the image forming device to control a vertical position of the toner cartridge when the toner cartridge is installed in the image forming device. A second alignment guide and a third alignment guide extend outward from the first side of the housing. The second alignment guide is spaced toward the front of the housing from the third alignment guide. Each of the second alignment guide and the third alignment guide includes a respective bottom surface that is unobstructed to permit the respective bottom surfaces of the second and third alignment guides to sit on top of a corresponding second guide surface in the image forming device to control the vertical position of the toner cartridge when the toner cartridge is installed in the image forming device. The bottom surface of the second alignment guide is aligned with the bottom surface of the third alignment guide in a vertical dimension of the housing. The bottom surfaces of the second and third alignment guides are positioned higher than the first alignment guide. The bottom surfaces of the second and third alignment guides are positioned higher than the rotational axis of the main input gear and are positioned closer to the rear of the housing than the rotational axis of the main input gear is to the rear of the housing. A fourth alignment guide extends outward from the first side of the housing. The fourth alignment guide includes a front surface and a top surface that are unobstructed to permit the front surface of the fourth alignment guide to provide a forward stop and the top surface of the fourth alignment guide to provide an upward rotational stop when the toner cartridge is installed in the image forming device. The fourth alignment guide is positioned lower than the second and third alignment guides. The fourth alignment guide is spaced toward the rear of the housing from the second alignment guide.
A toner cartridge for use in an electrophotographic image forming device according to another example embodiment includes a housing having a top, a bottom, a front and a rear positioned between a first side and a second side of the housing. The housing has a reservoir for holding toner. An outlet port is in fluid communication with the reservoir and faces downward on the front of the housing for exiting toner from the toner cartridge. The toner cartridge includes a toner delivery system for transferring toner from the reservoir out of the outlet port. The toner deliver system includes a main input gear for providing rotational power to the toner delivery system. A top portion of the main input gear is exposed at the first side of the housing for mating with a corresponding drive gear in the image forming device when the toner cartridge is installed in the image forming device. The main input gear includes a rotational axis. An engagement member is positioned on the first side of the housing. The engagement member includes an angled front surface that faces upward and toward the front of the housing and an angled rear surface that faces upward and toward the rear of the housing. The angled front surface and the angled rear surface are unobstructed from the top to receive a hold down force when the toner cartridge is installed in the image forming device. The angled front surface and the angled rear surface are positioned higher than the rotational axis of the main input gear and are positioned closer to the rear of the housing than the rotational axis of the main input gear is to the rear of the housing. A first alignment guide and a second alignment guide extend outward from the first side of the housing. The first alignment guide is spaced toward the front of the housing from the second alignment guide. Each of the first alignment guide and the second alignment guide includes a respective bottom surface that is unobstructed to permit the respective bottom surface to sit on top of a corresponding guide surface in the image forming device to control a vertical position of the toner cartridge when the toner cartridge is installed in the image forming device. The bottom surface of the first alignment guide is aligned with the bottom surface of the second alignment guide in a vertical dimension of the housing. The bottom surfaces of the first and second alignment guides are positioned higher than the rotational axis of the main input gear and are positioned closer to the rear of the housing than the rotational axis of the main input gear is to the rear of the housing. The bottom surfaces of the first and second alignment guides are positioned lower than the angled front surface and the angled rear surface of the engagement member. The second alignment guide is spaced toward the rear of the housing from the engagement member.
A toner cartridge for use in an electrophotographic image forming device according to another example embodiment includes a housing having a top, a bottom, a front and a rear positioned between a first side and a second side of the housing. The housing has a reservoir for holding toner. An outlet port is in fluid communication with the reservoir and faces downward on the front of the housing for exiting toner from the toner cartridge. The toner cartridge includes a toner delivery system for transferring toner from the reservoir out of the outlet port. The toner delivery system includes a main input gear for providing rotational power to the toner delivery system. A top portion of the main input gear is exposed at the first side of the housing for mating with a corresponding drive gear in the image forming device when the toner cartridge is installed in the image forming device. The main input gear includes a rotational axis. An engagement member is positioned on the first side of the housing. The engagement member includes an angled front surface that faces upward and toward the front of the housing and an angled rear surface that faces upward and toward the rear of the housing. The angled front surface and the angled rear surface are unobstructed from the top to receive a hold down force when the toner cartridge is installed in the image forming device. A peak of the engagement member positioned between the angled front surface and the angled rear surface is positioned higher than a topmost portion of the main input gear and is positioned closer to the rear of the housing than the rotational axis of the main input gear is to the rear of the housing. A first alignment guide extends outward from the first side of the housing. The first alignment guide includes a bottom surface that is unobstructed to permit the bottom surface of the first alignment guide to sit on top of a corresponding guide surface in the image forming device to control a vertical position of the toner cartridge when the toner cartridge is installed in the image forming device. The bottom surface of the first alignment guide is positioned higher than the rotational axis of the main input gear and is positioned closer to the rear of the housing than the rotational axis of the main input gear is to the rear of the housing. The bottom surface of the first alignment guide is positioned lower than the peak of the engagement member. A second alignment guide extends outward from the first side of the housing. The second alignment guide includes a front surface and a top surface that are unobstructed to permit the front surface of the second alignment guide to provide a forward stop and the top surface of the second alignment guide to provide an upward rotational stop when the toner cartridge is installed in the image forming device. The second alignment guide is positioned lower than the first alignment guide. The second alignment guide is spaced toward the rear of the housing from the engagement member.
The accompanying drawings incorporated in and forming a part of the specification, illustrate several aspects of the present disclosure, and together with the description serve to explain the principles of the present disclosure.
In the following description, reference is made to the accompanying drawings where like numerals represent like elements. The embodiments are described in sufficient detail to enable those skilled in the art to practice the present disclosure. It is to be understood that other embodiments may be utilized and that process, electrical, and mechanical changes, etc., may be made without departing from the scope of the present disclosure. Examples merely typify possible variations. Portions and features of some embodiments may be included in or substituted for those of others. The following description, therefore, is not to be taken in a limiting sense and the scope of the present disclosure is defined only by the appended claims and their equivalents.
Referring now to the drawings and particularly to
In the example embodiment shown in
Controller 28 includes a processor unit and associated electronic memory 29. The processor may include one or more integrated circuits in the form of a microprocessor or central processing unit and may be formed as one or more Application-specific integrated circuits (ASICs). Memory 29 may be any volatile or non-volatile memory or combination thereof, such as, for example, random access memory (RAM), read only memory (ROM), flash memory and/or non-volatile RAM (NVRAM). Memory 29 may be in the form of a separate memory (e.g., RAM, ROM, and/or NVRAM), a hard drive, a CD or DVD drive, or any memory device convenient for use with controller 28. Controller 28 may be, for example, a combined printer and scanner controller.
In the example embodiment illustrated, controller 28 communicates with print engine 30 via a communications link 50. Controller 28 communicates with imaging unit 200 and processing circuitry 44 thereon via a communications link 51. Controller 28 communicates with toner cartridge 100 and processing circuitry 45 thereon via a communications link 52. Controller 28 communicates with a fuser 37 and processing circuitry 46 thereon via a communications link 53. Controller 28 communicates with media feed system 38 via a communications link 54. Controller 28 communicates with scanner system 40 via a communications link 55. User interface 36 is communicatively coupled to controller 28 via a communications link 56. Controller 28 processes print and scan data and operates print engine 30 during printing and scanner system 40 during scanning. Processing circuitry 44, 45, 46 may provide authentication functions, safety and operational interlocks, operating parameters and usage information related to imaging unit 200, toner cartridge 100 and fuser 37, respectively. Each of processing circuitry 44, 45, 46 includes a processor unit and associated electronic memory. As discussed above, the processor may include one or more integrated circuits in the form of a microprocessor or central processing unit and may be formed as one or more Application-specific integrated circuits (ASICs). The memory may be any volatile or non-volatile memory or combination thereof or any memory device convenient for use with processing circuitry 44, 45, 46.
Computer 24, which is optional, may be, for example, a personal computer, including electronic memory 60, such as RAM, ROM, and/or NVRAM, an input device 62, such as a keyboard and/or a mouse, and a display monitor 64. Computer 24 also includes a processor, input/output (I/O) interfaces, and may include at least one mass data storage device, such as a hard drive, a CD-ROM and/or a DVD unit (not shown). Computer 24 may also be a device capable of communicating with image forming device 22 other than a personal computer such as, for example, a tablet computer, a smartphone, or other electronic device.
In the example embodiment illustrated, computer 24 includes in its memory a software program including program instructions that function as an imaging driver 66, e.g., printer/scanner driver software, for image forming device 22. Imaging driver 66 is in communication with controller 28 of image forming device 22 via communications link 26. Imaging driver 66 facilitates communication between image forming device 22 and computer 24. One aspect of imaging driver 66 may be, for example, to provide formatted print data to image forming device 22, and more particularly to print engine 30, to print an image. Another aspect of imaging driver 66 may be, for example, to facilitate collection of scanned data from scanner system 40.
In some circumstances, it may be desirable to operate image forming device 22 in a standalone mode. In the standalone mode, image forming device 22 is capable of functioning without computer 24. Accordingly, all or a portion of imaging driver 66, or a similar driver, may be located in controller 28 of image forming device 22 so as to accommodate printing and/or scanning functionality when operating in the standalone mode.
Print engine 30 includes a laser scan unit (LSU) 31, toner cartridge 100, imaging unit 200 and fuser 37, all mounted within image forming device 22. Imaging unit 200 is removably mounted in image forming device 22 and includes a developer unit 202 that houses a toner sump and a toner development system. In one embodiment, the toner development system utilizes what is commonly referred to as a single component development system. In this embodiment, the toner development system includes a toner adder roll that provides toner from the toner sump to a developer roll. A doctor blade provides a metered uniform layer of toner on the surface of the developer roll. In another embodiment, the toner development system utilizes what is commonly referred to as a dual component development system. In this embodiment, toner in the toner sump of developer unit 202 is mixed with magnetic carrier beads. The magnetic carrier beads may be coated with a polymeric film to provide triboelectric properties to attract toner to the carrier beads as the toner and the magnetic carrier beads are mixed in the toner sump. In this embodiment, developer unit 202 includes a magnetic roll that attracts the magnetic carrier beads having toner thereon to the magnetic roll through the use of magnetic fields. Imaging unit 200 also includes a cleaner unit 204 that houses a photoconductive drum and a waste toner removal system.
Toner cartridge 100 is removably mounted in imaging forming device 22 in a mating relationship with developer unit 202 of imaging unit 200. An outlet port on toner cartridge 100 communicates with an inlet port on developer unit 202 allowing toner to be periodically transferred from toner cartridge 100 to resupply the toner sump in developer unit 202.
The electrophotographic printing process is well known in the art and, therefore, is described briefly herein. During a printing operation, laser scan unit 31 creates a latent image on the photoconductive drum in cleaner unit 204. Toner is transferred from the toner sump in developer unit 202 to the latent image on the photoconductive drum by the developer roll (in the case of a single component development system) or by the magnetic roll (in the case of a dual component development system) to create a toned image. The toned image is then transferred to a media sheet received by imaging unit 200 from media input tray 39 for printing. Toner may be transferred directly to the media sheet by the photoconductive drum or by an intermediate transfer member that receives the toner from the photoconductive drum. Toner remnants are removed from the photoconductive drum by the waste toner removal system. The toner image is bonded to the media sheet in fuser 37 and then sent to an output location or to one or more finishing options such as a duplexer, a stapler or a hole-punch.
Referring now to
With reference to
With reference to
A toner agitator assembly 130 is rotatably positioned within toner reservoir 104. Toner agitator assembly 130 includes a rotatable drive shaft 132 and one or more toner agitators 134 that extend from drive shaft 132. Drive shaft 132 includes a rotational axis 133. In the example embodiment illustrated, rotational axis 133 of drive shaft 132 is parallel to rotational axis 127 of auger 126. Toner agitators 134 rotate with drive shaft 132 around rotational axis 133 when drive shaft 132 rotates. As drive shaft 132 rotates, toner agitators 134 agitate and mix the toner stored in toner reservoir 104 and, in the embodiment illustrated, move toner toward channel 128 where auger 126 moves the toner to outlet port 118. In the example embodiment illustrated, first and second ends of drive shaft 132 extend through aligned openings in side walls 114, 115, respectively. However, drive shaft 132 may take other positions and orientations as desired. Bushings may be provided on an inner side of each side wall 114, 115 where drive shaft 132 passes through side walls 114, 115.
A drive train 140 is operatively connected to drive shaft 132 and may be positioned within a space formed between end cap 112 and side wall 114. Drive train 140 includes a main input gear 142 that engages with a drive gear in image forming device 22 that provides rotational motion from an electric motor in image forming device 22 to main input gear 142. As shown in
With reference back to
With reference to
In the example embodiment illustrated, side 109 also includes an engagement member 160 that extends outward from side 109 near the top 106 of housing 102. As discussed in greater detail below, engagement member 160 receives a hold down force from a corresponding biasing member in image forming device 22 to retain toner cartridge 100 in its final position in image forming device 22. In the example embodiment illustrated, engagement member 160 is positioned on the outer side of end cap 113. Engagement member 160 includes an angled front surface 162 that faces upward and forward and an angled rear surface 163 that faces upward and rearward.
With reference to
In the example embodiment illustrated, side 108 also includes an engagement member 164 that extends outward from side 108 near the top 106 of housing 102. As discussed in greater detail below, engagement member 164 receives a hold down force from a corresponding biasing member in image forming device 22 to retain toner cartridge 100 in its final position in image forming device 22. In the example embodiment illustrated, engagement member 164 is positioned on the outer side of end cap 112. Like engagement member 160 discussed above, engagement member 164 includes an angled front surface 166 that faces upward and forward and an angled rear surface 167 that faces upward and rearward. Front surfaces 162, 166 and rear surfaces 163, 167 of engagement members 160, 164 are positioned higher than and spaced rearward from rotational axis 143 of main input gear 142. Engagement member 164 also includes a horizontal surface 168 at a peak 165 of engagement member 164 positioned between angled front surface 166 and angled rear surface 167. Horizontal surface 168 is positioned higher than a topmost portion of main input gear 142.
Side 108 also includes a pair of alignment guides 180, 182 that extend outward from side 108. In the example embodiment illustrated, alignment guides 180, 182 are positioned on the outer side of end cap 112. Each alignment guide 180, 182 includes a bottom surface 184, 186 that is unobstructed to permit bottom surfaces 184, 186 of alignment guides 180, 182 to sit on top of a corresponding guide surface in image forming device 22 in order to control the vertical position of toner cartridge 100 in image forming device 22. Bottom surfaces 184, 186 of alignment guides 180, 182 are aligned with each other in the vertical dimension of housing 102. Alignment guide 180 is positioned closer to front 110 of housing 102 than alignment guide 182 is to front 110 of housing 102. In some embodiments, the bottom surface 184, 186 of each alignment guide 180, 182 includes a rounded contact point to control the vertical position of toner cartridge 100 in image forming device 22. Bottom surfaces 184, 186 of alignment guides 180, 182 are each positioned higher than and spaced rearward from rotational axis 143 of main input gear 142. In the example embodiment illustrated, bottom surfaces 184, 186 of alignment guides 180, 182 are each positioned lower than angled front and rear surfaces 166, 167 and horizontal surface 168 of engagement member 164. In this embodiment, alignment guide 180 is aligned with engagement member 164 along the front-to-rear dimension of housing 102 and alignment guide 182 is spaced rearward from engagement member 164. In the example embodiment illustrated, alignment guides 180, 182 are positioned higher than alignment guides 150 and 170.
In the example embodiment illustrated, side 108 also includes an alignment guide 190 that extends outward from side 108. In the example embodiment illustrated, alignment guide 190 is positioned on the outer side of end cap 112. Alignment guide 190 includes a front surface 192 and a top surface 194 that are unobstructed to permit front surface 192 and top surface 194 to contact a corresponding guide surface in image forming device 22. As discussed in greater detail below, front surface 192 of alignment guide 190 serves as a forward stop to control the horizontal position of toner cartridge 100 in image forming device 22 along the front-to-rear-dimension of housing 102. Top surface 194 of alignment guide 190 serves as a rotational stop to prevent rotation of housing 102 within image forming device 22 about an axis parallel to rotational axis 143 of main input gear 142. Alignment guide 190 is positioned lower than alignment guides 180, 182. In the example embodiment illustrated, alignment guide 190 is spaced rearward from alignment guide 180 and is positioned slightly rearward from alignment guide 182. Alignment guide 190 is also spaced rearward from rotational axis 143 of main input gear 142. In the example embodiment illustrated, alignment guide 190 is positioned lower than and spaced rearward from angled front and rear surfaces 166, 167 and horizontal surface 168 of engagement member 164. In the example embodiment illustrated, alignment guide 190 is positioned higher than alignment guides 150 and 170.
As shown in
With reference to
As toner cartridge 100 advances to its final position, front surface 192 of alignment guide 190 contacts a rear surface 304b of guide 304 on side 108 of housing 102 and forward stop 158 of alignment guide 150 contacts a portion of top guide 300a of guide slot 300 on side 109 of housing 102 thereby controlling the horizontal position of toner cartridge 100 along the front-to-rear dimension of housing 102. In the example embodiment illustrated, alignment guide 170 on side 108 of housing 102 is spaced away from top guide 302a of guide slot 302 in the final position of toner cartridge 100. As discussed above, locating side 108 of toner cartridge 100 to guide 304 in image forming device 22 helps maintain precise alignment between main input gear 142 of toner cartridge 100 and drive gear 308. In other embodiments, alignment guide 170 may include a forward stop (similar to forward stop 158 of alignment guide 150) that contacts a portion of guide 304 in order to control the horizontal position of toner cartridge 100 along the front-to-rear dimension of housing 102 on side 108 of housing 102.
As toner cartridge 100 advances to its final position, rollers 306, 307 pass over a respective peak 161, 165 of each engagement member 160, 164 including horizontal surface 168 of engagement member 164 until rollers 306, 307 contact angled rear surfaces 163, 167. In the example embodiment illustrated, horizontal surface 168 of engagement member 164 serves as a dwell such that the passing of roller 307 over horizontal surface 168 pauses the motion of a linkage in image forming device 22 that is actuated by the movement of roller 307. The force applied by rollers 306, 307 to rear surfaces 163, 167 of engagement members 160, 164 urges toner cartridge 100 toward its final position in image forming device 22 and helps retain toner cartridge 100 in its final position in image forming device 22. Specifically, in the example embodiment illustrated, the force applied by rollers 306, 307 to engagement members 160, 164 helps maintain contact between bottom surfaces 184, 186 of alignment guides 180, 182 and top surface 304a of guide 304 on side 108 of housing 102 and between rounded projections 154a, 154b of alignment guide 150 and bottom guide 300b of guide slot 300 in order to maintain the vertical position of toner cartridge 100 as well as contact between front surface 192 of alignment guide 190 and rear surface 304b of guide 304 and between forward stop 158 of alignment guide 150 and a portion of top guide 300a of guide slot 300 in order to maintain the horizontal position of toner cartridge 100 along the front-to-rear dimension of housing 102.
Further, in the example embodiment illustrated, top surface 194 of alignment guide 190 serves as a rotational stop to prevent rotation of housing 102 within image forming device 22. Specifically, the forward and downward force on main input gear 142 resulting from the rotation of drive gear 308 may cause toner cartridge 100 to rotate about the contact point between bottom surface 184 of alignment guide 180 and top surface 304a of guide 304 causing the rear 111 of housing 102 to lift up. Top surface 194 of alignment guide 190 is positioned in close proximity to a bottom surface 304c of guide 304 in the final position of toner cartridge 100 so that if rear 111 of housing 102 begins to rotate upward, top surface 194 of alignment guide 190 will contact bottom surface 304c of guide 304 in order to prevent further rotation of toner cartridge 100. In other embodiments, alignment guide 170 may include a rotational stop that contacts a portion of guide 304 in order to prevent rotation of toner cartridge 100.
With reference to
As toner cartridge 100 advances further, housing 102 is restrained between inner surfaces 212b, 214b of vertical walls 212, 214 further limiting the travel of toner cartridge 100 in the side-to-side dimension of housing 102. In the example embodiment illustrated, these coarse positional control features lead to fine control features in the form of a tightly controlled slot and tab interface. Frame 206 includes a second pair of vertical walls 216, 218 that are spaced closely together forming a slot 220 therebetween. Vertical walls 216, 218 are positioned between vertical walls 212, 214. As toner cartridge 100 advances closer to developer unit 202, a tab 123 from the front 110 of housing 102, near the bottom 107 of housing 102 is tightly received in slot 220. The contact between tab 123 and vertical walls 216, 218 forming slot 220 controls the final horizontal position of toner cartridge 100 in the side-to-side dimension of housing 102.
While the example embodiment illustrated includes alignment guides 180, 182, 190 in the form of circular projections that extend outward from side 108, it will be appreciated that alignment guides 180, 182, 190 may take many suitable shapes and forms. Alignment guides 180, 182, 190 may include fixed projections on housing 102 as illustrated or rotatable elements, such as rolls, to aid in insertion of toner cartridge 100 into image forming device 22. Further, alignment guides 180, 182, 190 may all take the same form or different forms. Similarly, while the example embodiment illustrated includes alignment guides 150, 170 having a wing-like structure that is elongated in the front-to-rear dimension of housing 102, any suitable shape or form may be utilized as desired. Further, alignment guides 150, 170 may have the same form as each other or different forms. For example,
Although the example embodiment shown in
The foregoing description illustrates various aspects of the present disclosure. It is not intended to be exhaustive. Rather, it is chosen to illustrate the principles of the present disclosure and its practical application to enable one of ordinary skill in the art to utilize the present disclosure, including its various modifications that naturally follow. All modifications and variations are contemplated within the scope of the present disclosure as determined by the appended claims. Relatively apparent modifications include combining one or more features of various embodiments with features of other embodiments.
Number | Name | Date | Kind |
---|---|---|---|
5581328 | Yashiro | Dec 1996 | A |
5758233 | Coffey et al. | May 1998 | A |
5768661 | Coffey et al. | Jun 1998 | A |
6014536 | Ban et al. | Jan 2000 | A |
6070029 | Nishiuwatoko et al. | May 2000 | A |
6463233 | Kojima et al. | Oct 2002 | B2 |
6697578 | Watanabe et al. | Feb 2004 | B2 |
6738589 | Karakama et al. | May 2004 | B2 |
6771922 | Blanck et al. | Aug 2004 | B2 |
6782219 | Yoshino et al. | Aug 2004 | B2 |
7139510 | Carter et al. | Nov 2006 | B2 |
7305204 | Carter et al. | Dec 2007 | B2 |
7447464 | Miller | Nov 2008 | B2 |
7486910 | Kitozaki | Feb 2009 | B2 |
7548710 | Gayne et al. | Jun 2009 | B2 |
7606520 | Dawson | Oct 2009 | B2 |
7672624 | Dawson et al. | Mar 2010 | B2 |
8078088 | Sato | Dec 2011 | B2 |
8867970 | Acosta et al. | Oct 2014 | B2 |
9104135 | Hackney | Aug 2015 | B2 |
9360834 | Payne | Jun 2016 | B1 |
9417603 | Acosta et al. | Aug 2016 | B2 |
20030091361 | Noda et al. | May 2003 | A1 |
20040105699 | Kubota | Jun 2004 | A1 |
20050135838 | Miller | Jun 2005 | A1 |
20050191091 | Isobe et al. | Sep 2005 | A1 |
20050201773 | Matsubara et al. | Sep 2005 | A1 |
20060029423 | Shiraki | Feb 2006 | A1 |
20060062589 | Sasaki et al. | Mar 2006 | A1 |
20060067725 | Miyabe et al. | Mar 2006 | A1 |
20060140664 | Takami | Jun 2006 | A1 |
20060228127 | Miyabe et al. | Oct 2006 | A1 |
20070140725 | Kamimura | Jun 2007 | A1 |
20070212118 | Nagae et al. | Sep 2007 | A1 |
20070223965 | Takagi | Sep 2007 | A1 |
20080101821 | Gayne et al. | May 2008 | A1 |
20080260421 | Mase | Oct 2008 | A1 |
20090142103 | Chaudhuri et al. | Jun 2009 | A1 |
20100054814 | Sakurai et al. | Mar 2010 | A1 |
20100221039 | Kawai et al. | Sep 2010 | A1 |
20110158684 | Sato | Jun 2011 | A1 |
20130170868 | Acosta | Jul 2013 | A1 |
20140003841 | Kobayashi | Jan 2014 | A1 |
20160179053 | Boettcher | Jun 2016 | A1 |
20160231698 | Miyoshi | Aug 2016 | A1 |
20170108827 | Kusano | Apr 2017 | A1 |
Number | Date | Country |
---|---|---|
1841231 | Oct 2006 | CN |
102262387 | Nov 2011 | CN |
0331324 | Sep 1989 | EP |
1939695 | Jul 2008 | EP |
02-042454 | Feb 1990 | JP |
03-134674 | Jun 1991 | JP |
05-119550 | May 1993 | JP |
11-153904 | Jun 1999 | JP |
2005-134725 | May 2005 | JP |
2008-134570 | Dec 2008 | JP |
2009-169117 | Jul 2009 | JP |