Printers may employ paper cassettes to hold paper to be dispensed during printing operations. Different sizes of paper or other media may be used and stored in the paper cassettes for different printing operations, or as a standard size in different regions.
In order to accommodate the different sizes of paper or other media, paper cassettes are generally manually deployed between different sizes. Deploying to the different sizes may cause challenges for a user, especially when unpacking a new printer.
An example paper cassette may adjust between different positions using a length selection mechanism to mechanically select one deployment position of a sliding portion while the sliding portion is in a shipping position, and lock the sliding portion at the one deployment position relative to a cassette portion when the sliding portion first slides from a shipping position. Thus the length selection mechanism may be used to mechanically select an appropriate deployment position during manufacture, based for example on the region to which the printer is to be deployed. The deployment position is selected while the sliding portion is in the shipping position, and hence the paper cassette and/or printer may be shipped in the shipping position which has an improved shipping or packing efficiency. Then, when the sliding portion first slides from the shipping position (e.g., during unpacking by a user), the sliding portion locks at the selected appropriate deployment position.
The sliding portion 104 is arranged initially in a shipping position defining a shipping length L of the paper cassette 100. For example,
The sliding portion 104 is further deployable to different deployment positions at which the paper cassette 100 is longer than the shipping length. For example, referring to
The length selection mechanism 106 is to mechanically select one deployment position of the different deployment positions. For example, the length selection mechanism 106 may include cooperating slots, biased portions, adjustable blocking mechanisms to select the deployment position, as will be described further below. The components of the length selection mechanism 106 may interact mechanically, for example by rotation, sliding, biasing, or the like, to enable the selection of the deployment position, as will be described further below. In particular, the length selection mechanism 106 is to select the deployment position while the sliding portion 104 is in the shipping position. That is, when the sliding portion 104 is in the shipping position, for example during manufacture and/or prior to shipping, the length selection mechanism 106 may select a suitable deployment position based on end user conditions (e.g., a standard length of paper to be used by the user).
The length selection mechanism 106 is further to lock the sliding portion 104 at the one deployment position, relative to the cassette portion 102, when the sliding portion 104 first slides from the shipping position. Thus, after the paper cassette 100 has been shipped, a user may slide the sliding portion 104 out, and the length selection mechanism 106 may lock the sliding portion 104 in the suitable, selected deployment position to receive paper in the paper cassette 100 for use in a printer.
That is, the paper cassette 100 may have the shipping length when the sliding portion 104 is arranged in the shipping position relative to the cassette portion 102 during shipping to optimize space efficiency and packing arrangements. For normal operation, the length selection mechanism 106 locks the sliding portion 104 at the selected deployment position when the sliding portion 104 first slides from the shipping position. Since the deployment position can be pre-selected while the sliding portion 104 is in the shipping position, the length selection mechanism 106 may select the deployment position during manufacture to reduce manual adjustments by the end user.
The slots 200-1, 200-2 are respectively associated with the different deployment positions of the sliding portion 104. That is, the slot 200-1 may be associated with a first deployment position (e.g., associated with a first paper length), and the slot 200-2 may be associated with a second deployment position (e.g., associated with a second paper length). In the present example, the slots 200-1, 200-2 are located at the sliding portion 104, and particularly, in a sidewall 206 of the sliding portion 104. The slots 200-1, 200-2 may be positioned perpendicular to a direction of movement of the sliding portion 104 such that respective openings of the respective slots 200-1, 200-2 at the sidewall are parallel to the direction of movement of the sliding portion 104.
The biased portion 202 is to mate with one of the slots 200-1, 200-2 as the sliding portion 104 slides relative to the cassette portion 102 from the shipping position. For example, the biased portion 202 may be located at the cassette portion 102, biased to move in a direction perpendicular to the direction of movement of the sliding portion 104 and into the respective openings of the slots. In particular, the mating of the biased portion 202 with one of the slots 200-1, 200-2 enables the length selection mechanism 106 to lock the sliding portion 104 in one of the deployment positions associated with the slots 200-1, 200-2. That is, since the biased portion 202 is biased perpendicular to the direction of movement, when it mates with one of the slots 200-1, 200-2 by moving into the respective opening of the slots 200-1, 200-2, further movement by the sliding portion 104 is restricted.
The adjustable blocking mechanism 204 is to mechanically block or unblock the slots 200-1, 200-2 to allow the length selection mechanism 106 to mechanically select a deployment position associated with one of the slots 200-1, 200-2. In particular, a first slot with which the biased portion 202 mates, as the sliding portion 104 slides relative to the cassette portion 102 from the shipping position, is the slot associated with the selected deployment position.
The adjustable blocking mechanism 204 is depicted in the present example as a flexible arm 208 which may be biased into a blocking position in the first slot 200-1 to block the first slot 200-1. When the adjustable blocking mechanism 204 is in the blocking position blocking the first slot 200-1, the adjustable blocking mechanism 204 prevents the biased portion 202 from mating with the first slot 200-1. In particular, a blocking portion 209 of the flexible arm 208 occupies sufficient space within the slot 200-1 to restrict the biased portion 202 from mating with the first slot 200-1.
Since the first slot 200-1 is the slot closer on the sliding portion 104 to the biased portion 202, when the sliding portion 104 slides from the shipping position, the biased portion 202 is restricted from mating with the first slot 200-1, and the sliding portion 104 continues to slide relative to the cassette portion 102 until the biased portion 202 mates with the second slot 200-2. In other words, when the first slot 200-1 is blocked, the biased portion 202 mates with the second slot 200-2, placing the sliding portion 104 into the second deployment position associated with the second slot 200-2.
When the adjustable blocking mechanism 204 is in the unblocking position, the flexible arm 208 is locked by the mating of the protrusion and the aperture in a position clear from the slot 200-1. In particular, the blocking portion 209 is sufficiently removed from the slot 200-1 such that the biased portion 202 may mate with the first slot 200-1. Thus, the adjustable blocking mechanism 204 allows the biased portion 202 to mate with the first slot 200-1. Since the first slot 200-1 is the slot closest on the sliding portion 104 to the biased portion 202 when the sliding portion 104 slides from the shipping position, the biased portion 202 mates with the first slot 200-1. In other words, when the first slot 200-1 is unblocked, the biased portion mates with the first slot 200-1, placing the sliding portion 104 into the first deployment position associated with the first slot 200-1.
In the present example, the length selection mechanism 106 includes a single adjustable blocking mechanism 204, which may selectively block and unblock the first slot 200-1. Since there are only two slots 200-1, 200-2 in the present example, the blocking or unblocking of the first slot 200-1 effectively selects one of the slots 200-1, 200-2 and its associated deployment position. That is, when the flexible arm 208 blocks the first slot 200-1, the length selection mechanism 106 effectively selects the second slot 200-2 and its associated deployment position as the selected deployment position. Similarly, when the flexible arm 208 is in the unblocking position, the length selection mechanism 106 effectively selects the first slot 200-1 and its associated deployment position as the selected deployment position. In other examples, the length selection mechanism 106 may include more than one adjustable blocking mechanism, for example to allow blocking and/or unblocking of the slots when there are more than two slots and associated deployment positions.
As will be further appreciated, the length selection mechanism 106 may mechanically select one of the deployment positions when the sliding portion 104 is in the shipping position. That is, the adjustable blocking mechanism 204 is accessible while the sliding portion 104 is in the shipping position and hence the adjustable blocking mechanism 204 may be manually adjusted (e.g., by a worker in a manufacturing facility during manufacture) while the sliding portion 104 is in the shipping position to select the desired deployment position. In particular, the adjustable blocking mechanism 204 may be flexed at the flexible arm 208 such that the protrusion mates with the aperture to unblock the first slot 200-1 and therefore select the first deployment position associated with the first slot 200-1 as the selected deployment position. Alternately, the protrusion may be released from the aperture to bias the flexible arm 208 to block the first slot 200-1 and therefore select the second slot associated with the second slot 200-2 as the selected deployment position.
In other examples, other adjustable blocking mechanisms to adjustably block or unblock the slots 200-1, 200-2 such that a first slot with which the biased portion 202 mates is the respective slot associated with the selected deployment position.
For example,
The rotatable arm 300 is depicted in
The rotatable arm 300 is depicted in
The slidable arm 400 is depicted in
In other examples, rather than sliding back and forth within the first slot 200-1, the slidable arm 400 may slide in and out of the first slot 200-1. In such examples, the slidable arm 400 may be moved out of the slot 200-1 such that the biased portion 202 may mate with the first slot 200-1 to allow selection of the first slot 200-1 and its associated deployment position.
The slidable arm 400 is depicted in
The sliding portion 604 is initially arranged in a shipping position to define a shipping length of the paper cassette 504. The sliding portion 604 is further deployable to different deployment positions at which the paper cassette 100 is longer than the shipping length.
The length selection mechanism 606 is to mechanically select one deployment position of the different deployment positions and lock the sliding portion 604 at the selected deployment position. For example, the length selection mechanism 606 may include cooperating slots, biased portions, adjustable blocking mechanisms to select the deployment position, similar to the length selection mechanism 106. The components of the length selection mechanism 606 may interact mechanically, for example by rotation, sliding, biasing, or the like, to enable the selection of the deployment position, similar to the length selection mechanism 106. In particular, the length selection mechanism 606 is to select the deployment position while the sliding portion 604 is in the shipping position.
The catch mechanism 506 interacts with the paper cassette 504 when the cassette portion 602 first slides out of the chassis 502. In particular, the catch mechanism 506 is to catch the sliding portion 604 relative to the chassis 502 as the cassette portion 602 first slides out of the chassis 502. The catch mechanism 506 therefore causes the sliding portion 604 to slide relative to the cassette portion 602 to cause the length selection mechanism to lock the sliding portion at the selected deployment position. The catch mechanism 506 may be, for example, a protrusion from the sliding portion 604 or the chassis 502.
The paper cassette 504 may have the shipping length when the sliding portion 604 is arranged in the shipping position relative to the cassette portion 602 during shipping to optimize space efficiency and packing arrangements. For example,
Since the sliding portion 604 is substantially flush with the chassis 502 in the shipping position, and the length of the paper cassette 504 is longer than the shipping length, the chassis 502 may include an opening at a side adjacent the sliding portion 604 to allow the sliding portion 604 to extend from the chassis 502 through the opening. For example,
The length selection mechanism 606 may further be accessible when the cassette portion 602 extends out the chassis 502. For example,
Referring to
As described above, an example paper cassette for a printer includes a length selection mechanism which facilitates the automatic selection of an appropriate deployment position, and therefore paper cassette length, when the paper cassette is first unpacked from the shipping position. In particular, the length selection mechanism may block or unblock slots associated with different deployment positions to allow a biased arm to mate with the slot associated with the appropriate selected deployment position.
The scope of the claims should not be limited by the above examples, but should be given the broadest interpretation consistent with the description as a whole.