Weapon shooting rest

Abstract

A shooting rest (e.g., recoil-reducing shooting rest) for supporting a weapon or firearm, associated components and methods. The shooting rest has a frame, a front firearm support for supporting a forward portion of the firearm, and a rear firearm support for supporting a rear portion of the firearm. The rear firearm support having a stop for inhibiting rearward movement of the firearm relative to the rear firearm support when the firearm is supported by the shooting rest and is fired. The shooting rest can include an object support for receiving and supporting an object. The object support is adjustable in size. The shooting rest can also include a vibration dampener. The vibration dampener is moveable relative to the stop to absorb recoil vibrations when the firearm is supported by the shooting rest and is fired.

Description

CROSS-REFERENCE TO RELATED APPLICATION

[0001] This application claims priority to U.S. Provisional Patent Application No. 63 / 747,535, filed January 21, 2025, the entirety of which is hereby incorporated by reference.FIELD

[0002] The present disclosure relates to weapon shooting rests for supporting firearms, and more particularly to recoil-reducing weapon shooting rests.BACKGROUND

[0003] Firearm or weapon shooting rests are used to support firearms in a steady position during shooting activities such as sighting-in or target practice. SUMMARY

[0004] In one aspect, a shooting rest for use by a shooter when shooting a firearm comprises a frame, a front firearm support, a rear firearm support, and object support, and a stop. The front firearm support is supported by the frame. The front firearm support is configured to support a forward portion of the firearm. The rear firearm support is supported by the frame. The rear firearm support is configured to support a rear portion of the firearm. The object support is supported by the frame. The object support is configured to receive and support an object. The object support is adjustable in size. The stop is configured to inhibit rearward movement of the firearm relative to the shooting rest when the firearm is supported by the front and rear firearm supports and is fired.

[0005] In another aspect, recoil-reducing shooting rest for use by a shooter when shooting a firearm comprising a frame, a front firearm support, a rear firearm support, a vibration dampener, and a stop. The front firearm support is supported by the frame. The front firearm support is configured to support a forward portion of the firearm. The rear firearm support is supported by the frame. The rear firearm support is configured to support a rear portion of the firearm. The vibration dampener is supported by the frame,. The vibration dampener is moveable relative to the stop to absorb recoil vibrations when the firearm is supported by the front and rear firearm supports and is fired. The stop is configured to inhibit rearward movement of the firearm relative to the firearm rest when the firearm is supported by the front and rear firearm supports and is fired.

[0006] In another aspect, a recoil-reducing shooting rest for supporting a firearm comprises a frame, a front firearm support, a rear firearm support, a stop, and a supplemental weight support. The front firearm support is supported by the frame. The front firearm support is configured to support a forward portion of the firearm. The rear firearm support is supported by the frame. The rear firearm support is configured to support a rear portion of the firearm. The stop is configured to inhibit rearward movement of the firearm relative to the firearm rest when the firearm is supported by the firearm rest and fired. The supplemental weight support is supported by the frame and is configured to hold supplemental weight to increase effective mass of the shooting rest to reduce firearm recoil force felt by a user. The firearm rest is free of a frame member above the supplemental weight support extending between the front and rear supports.

[0007] Other objects and features of the present disclosure will be in part apparent and in part pointed out herein.BRIEF DESCRIPTION OF FIGURES

[0008] Non-limiting and non-exhaustive examples are described with reference to the following figures.

[0009] FIG. 1 is a perspective of a shooting rest according to one embodiment of the present disclosure;

[0010] FIG. 2 is another perspective of the shooting rest;

[0011] FIG. 3 is a perspective of the shooting rest with two containers of the shooting rest removed and an object support in an enlarged configuration;

[0012] FIG. 4 is similar to FIG. 3, but the object support is in a compact configuration;

[0013] FIGS. 5A and 5B are top views of the shooting rest with the object support in the enlarge and compact configurations, respectively;

[0014] FIG. 6 is a perspective of the frame and firearm supports of the shooting rest, the frame in an extended configuration;

[0015] FIG. 7 is a perspective of the shooting rest, with the frame in a retracted configuration and the object support in the compact configuration;

[0016] FIG. 8 is a bottom perspective of FIG. 7;

[0017] FIG. 9 is a bottom view of FIG. 7, with portions of the shooting rest shown transparent to show interior details of a frame retainer of the shooting rest, the frame retainer in a retaining configuration;

[0018] FIG. 10 is an enlarged, fragmentary bottom view of FIG. 9, with the frame retainer in a release configuration;

[0019] FIG. 11 is similar to FIG. 9, except the frame is in the extended configuration;

[0020] FIG. 12 is an enlarged, fragmentary perspective of a rear portion of the shooting rest;

[0021] FIG. 13 is a enlarged, fragmentary, partially exploded view of the rear portion of the shooting rest;

[0022] FIG. 14 is a cross-sectional view of the shooting rest through the front firearm support;

[0023] FIG. 15 is a perspective of the front firearm support;

[0024] FIGS. 16A-C are cross-sectional view of a cradle of the front firearm support in different windage positions;

[0025] FIG. 17 is a bottom perspective of the front firearm support;

[0026] FIG. 18 is a bottom perspective of a base of the front firearm support; and

[0027] FIG. 19 is an enlarged, fragmentary, cross-sectional view of the front firearm support.

[0028] Corresponding reference characters indicate corresponding parts throughout the drawings.DETAILED DESCRIPTION

[0029] The present disclosure relates to a weapon or firearm shooting rest that supports a firearm (not shown) during shooting activities such as sighting-in, target practice, or other applications where stable support of the firearm is desired.  The shooting rest of the present disclosure provides features for reducing or managing the recoil of the firearm and, therefore, can be referred to as a recoil-reducing shooting rest.  The shooting rest provides a stable platform for supporting a firearm while incorporating features for recoil management, length adjustment, and aiming adjustments.  It is understood and appreciated that aspects disclosed herein can be incorporated into other types and configurations of shooting rests without departing from the scope of the present disclosure.

[0030] Referring to FIGS. 1 and 2, a shooting rest according to one embodiment of the present disclosure is generally indicated by reference numeral 10. The shooting rest 10 is usable by a shooter when shooting a firearm. The shooting rest 10 comprises a frame 12, a first or front firearm support 14, a second or rear firearm support 16, and an object support 18 (broadly, supplemental weight support). The front firearm support 14, the rear firearm support 16, and the object support 18 are all supported by the frame 12. Specifically, the front firearm support 14, the rear firearm support 16, and the object support 18 are all connected to the frame 12. The frame 12 provides the structural foundation of the shooting rest 10 and interconnects the various components. The front and rear firearm supports define a firearm axis therebetween along which a firearm would extend when supported by the firearm supports. Other configurations can be used without departing from the scope of the present disclosure. The shooting rest 10 is configured as a recoil-reducing shooting rest that absorbs and manages recoil forces generated when a firearm is discharged (fired) while being supported by the shooting rest.

[0031] The front firearm support 14 is positioned at a forward end of the frame 12. The front firearm support 14 supports a first or forward portion of the firearm, such as a fore-end or barrel region of the firearm. The rear firearm support 16 is positioned at a rearward end of the frame 12, spaced apart from the front firearm support 14. The rear firearm support 16 supports a rear portion of the firearm, such as a buttstock of the firearm. The front firearm support 14 and the rear firearm support 16 cooperate to support the firearm in a stable, elevated position relative to a shooting surface (e.g., tabletop, floor, ground, etc.). Desirably, the rear firearm support 16 has a stop 20 that inhibits rearward movement of a firearm relative to the rear firearm support 16 (and the frame 12) when the firearm is supported by the front and rear firearm supports and is fired. The stop 20 transfers the recoil forces from the firearm into the frame 12, and thereby other components of the shooting rest 10. Other configurations (e.g., other types of stops) can be used without departing from the scope of the present disclosure. For example, the stop 20 can be formed of rigid metal or another suitable material (e.g., fabric sling).

[0032] Referring further to FIGS. 1-5B, the object support 18 is generally positioned between the front firearm support 14 and the rear firearm support 16. The object support extends to opposite left and right sides of the firearm axis defined by the front and rear supports. The object support 18 receives and supports one or more objects. In one embodiment, the objects are weights which increase the effective weight of the shooting rest 10 to reduce the recoil felt by the shooter when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. The weight (broadly, object) can be a metal plate or disk (e.g., plate weights), dumbbell, a container filled with a heavy material, a bag filled with a heavy material, or any other suitably heavy item. As more fully explained in U.S. Patent No. 8,621,773, the entirety of which is incorporated herein by reference, the rearward acceleration caused by the recoil force is substantially resisted by the mass / weight of the one or more objects (and the shooting rest 10 itself). The supplemental weight increases the effective mass of the shooting rest to reduce recoil felt by the shooter. The shooting rest 10 can include the one or more objects. In the illustrated embodiment, the shooting rest 10 includes two weights in the form of containers or tanks 22 (broadly, at least one container) as the objects (e.g., supplemental weights). Each container 22 includes a container body 24 having an interior and a cap or cover 26 for selectively providing access to the interior (via a container mouth of the container body). The interior of the container 22 can receive or be filled with a flowable material, such as a liquid (e.g., water), sand, lead shot, gravel, and the like (and any combinations thereof), to increase the effective weight of the shooting rest 10 to reduce recoil felt by the shooter when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. The container body 24 can be made of generally rigid material, such as metal or plastic, to retain its shape. In other embodiments, the container body can be flexible (e.g., made of fabric). The containers 22 are positioned on or rest on the object support 18.

[0033] The object support 18 includes a support platform 28 on which the one or more objects (e.g., containers 22) can be placed. The platform includes a right platform portion to the right side of the firearm axis and a left platform portion to the left of the firearm axis. The object holding space on the platform is generally uninterrupted (e.g., by framing) from the right platform portion to the right platform portion. The object support 18 (e.g., weight support) is adjustable in size. Specifically, the area of the support platform 28 is adjustable in size. This allows the object support 18 to accommodate objects of varying dimensions. The object support 18 is moveable or reconfigurable between a first or enlarged configuration (FIGS. 3 and 5A) and a second or compact configuration (FIGS. 4 and 5B). The size of the object support 18 (specifically, the support platform 28) is larger in the enlarged configuration than in the compact configuration. In the illustrated embodiment, the object support 18 (e.g., the support platform 28) is adjustable in length, with the length of the object support 18 being parallel to a distance D (FIG. 5A) between the front and rear firearm supports 14, 16. The object support 18 has a first length L1 (FIG. 5A) in the enlarged configuration and a second length L2 in the compact configuration. The first length L1 is greater than the second length L2. Other ways of changing the size of the object support can be used without departing from the scope of the present disclosure. For example, the width of the object support can be adjustable. The object support 18 can be changed to have any length between the first and second lengths L1, L2.

[0034] The object support 18 includes a first or front brace 36 for inhibiting forward movement of the object (e.g., container 22) supported by the object support relative to the object support when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. In other words, the front brace 36 causes the one or more objects to move rearward with the object support 18 due to the recoil of the firearm. This transfers the force of the recoil to the one or more objects, whose heavy weight help dampen the force of the recoil on the shooter. In the illustrated embodiment, the front brace 36 comprises a wall positioned at a forward end of the object support 18 and extending upward from the support platform 18. The object support 18 also includes a second or rear brace 38 for inhibiting rearward movement of the object (e.g., container 22) supported by the object support 18 relative to the object support when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. The rear brace 38 comprises a wall positioned at a rearward end of the object support 18 and extending upward from the support platform 28. The front and rear braces 36, 38 cooperate to retain objects on the object support 18 during recoil events, preventing the objects from shifting or falling off the object support.

[0035] The front and rear braces 36, 38 are moveable relative to one another to change a distance between them. The front and rear braces 36, 38 move toward and away from one another as the object support 18 is moved between the enlarged and compact configurations. The adjustability of the object support 18 allows the user to configure the distance between the front and rear braces 36, 38 to match the length (broadly, a dimension) of the object (e.g., the length of the container 22). This ensures that the object is held securely in place between the front and rear braces 36, 38. Desirably, the size of the object support 18 is adjusted so that the front brace 36 engages the front end of the object (e.g., the front end of the container 22) and the rear brace 38 engages the rear end of the objection (e.g., the rear end of the container 22). For example, the object can be clamped between the front and rear braces 36, 38. This ensures the object(s) and the object support 18 do not move relative to one another during recoil of the firearm, thereby effectively transferring the recoil force to the one or more objects and maximizing the reduction in recoil felt by the shooter. If a gap were to exist between the front support 36 and the object, the object support 18 could slide rearward relative to the object (e.g., slide underneath the object) during recoil of the firearm (the object staying generally still or in place due to its own inertia) until the front support 36 engages the object. Such movement would reduce or lessen the recoil reducing effect of the one or more objects compared to if there was no gap to begin with. Accordingly, adjusting the relative positions of the front and rear braces 36, 38 to locate the front brace 36 is in contact with the object on the support platform 28 before the firearm is fired maximizes the recoil reducing effect of the object. Other configurations (e.g., omitting the rear brace) can be used without departing form the scope of the present disclosure.

[0036] In the illustrated embodiment, the object support 18 comprises a tray (broadly, has a tray-like structure). The object support 18 has a first or front support 30 and a second or rear support 32. The front support 30 includes the front brace 36 and a portion (e.g., front portion) of the support platform 28. The rear support 32 includes the rear brace 38 and another portion (e.g., rear portion) of the support platform 28. In the illustrated embodiment, the front support 30 is fixed to the frame 12, such as with one or more fasteners, and does not move relative to the frame. The rear support 32 is moveable relative to the front support 30 and the frame 12 to change the size of the object support 18. The rear support 32 slides forward or rearward relative to the front support 30 to increase or decrease the overall length of the object support 18 (e.g., move the front and rear braces 36, 38 toward or away from one another), thereby accommodating objects of varying sizes. The rear support 32 is moveable to different positions relative to the front support 30. When the rear support 32 is in a first or forward-most position, the object support 18 is in the compact configuration (FIGS. 4 and 5B). When the rear support 32 is in a second or rearward-most position, the object support 18 is in the enlarged configuration (FIGS. 3 and 5A). The rear support 32 is infinitely adjustable between the forward-most and rearward-most positions. In other words, the rear support 32 can be secured in any position between (and including) the forward-most and rearward-most positions. This allows the user to move the front and rear braces 36, 38 to engage an object (e.g., container 22) of generally any length (specifically, any length between the first and second lengths L1, L2).

[0037] The object support 18 is adjustable in size independent of changing the distance D between the front and rear firearm supports 14, 16. In other words, the length of the object support 18 can be adjusted without affecting the spacing between the front firearm support 14 and the rear firearm support 16. The rear support 32 is moveable relative to the frame 12, the front firearm support 14, and the rear firearm support 16. The size of the object support 18 is adjustable without use of a tool (e.g., screwdriver, wrench, etc.), allowing the shooter to quickly reconfigure the object support 18 to accommodate objects.

[0038] The shooting rest 10 includes at least one object support retainer 34 configured to selectively inhibit the size of the object support 18 from changing.  In other words, the object support retainer 34 selectively secures the object support 18 in one of its configurations (e.g., enlarged configuration, compact configuration, etc.).  The object support retainer 34 locks the rear support 32 in a selected position relative to the front support 30, preventing unintended movement of the rear support relative to the front support during use.  Broadly, the object support retainer 34 selectively secures the front and rear braces 36, 38 relative to one another.

[0039] In the illustrated embodiment, the shooting rest 10 comprises two object support retainers 34. The two object support retainers 34 are generally identical. Each object support retainer 34 comprises a knob or actuator threadably mounted on a threaded shaft or bolt. The threaded shaft extends through an opening (e.g., circular opening) in the rear support 32 and a slot 35 in the front support 30. In the illustrated embodiment, the left and right sides of the front and rear supports 30, 32 each include downwardly extending flanges (extending from the support platform 28), the openings and slots 35 being in the flanges. This positions the support retainers 34 below the support platform 28 (below an upper surface of the support platform on which the objects rest), so as to not be interfered with by the objects on the object support 18. Other configurations of the object support retainers can be used without departing from the scope of the present disclosure.

[0040] To secure the front and rear supports 30, 32 together and inhibit them from moving relative to one another (broadly, to inhibit the front and rear braces 36, 38 from moving relative to one another or, more broadly, to secure the size of the object support 18), the user rotates the knobs of the object support retainers 34 in a first direction (e.g., clockwise), thereby clamping the front and rear supports (e.g., the flanges thereof) together to inhibit movement. To permit the rear support 32 to move relative to the front support 30 (broadly, to permit the front and rear braces 36, 38 to move relative to one another, or more broadly, to permit the size of the object support 18 to be changed), the user rotates the knobs of the object support retainer 34 in an opposite, second direction (e.g., counterclockwise), thereby releasing and permitting the rear support to be moved by the user relative to the front support. The user selectively moves the object support retainers 34 between these retaining and release configurations to adjust the size of the object support 18. The closed ends of the slots 35 act as stops that limit how far the rear support 32 can move relative to the front support 30. When the object support retainer 34 (e.g., threaded rod thereof) engages the rear end of the slot 35, the rear support 32 is in its rearward-most position (e.g., the object support 18 is in the enlarged configuration). When the object support retainer 34 (e.g., threaded rod thereof) engages the front end of the slot 35, the rear support 32 is in is forward-most position (e.g., the object support 18 is in compact configuration).

[0041] Still referring to FIGS. 1-5B, the object support 18 can include one or more connectors 40 for connecting the object (e.g., container 22) to the object support. This further secures the one or more objects on the object support 18. In the illustrated embodiment, each connector 40 comprises an opening configured to receive a strap 42 of the shooting rest 10. The front brace 36 includes two openings (broadly, two connectors 40) and the rear brace 38 includes two openings (broadly, two connectors). Each opening has an open upper end or slide that allows the strap 42 to slide down into the opening (instead of having to be threaded therethrough). The front brace 36 can also include notches or recesses 44 on the left and rights sides thereof for receiving the strap 42 and inhibiting the strap from moving upward or downward.

[0042] In use (FIGS. 1 and 2), the strap 42 extends around the perimeter of the object support 18, through the openings 40 and notches 44, to secure the one or more objects to the object support 18. Broadly, the strap includes one or more strap segments (e.g., at least one strap segment) which extend along a side of the object support (e.g., for obstructing an object from moving laterally off the object support) lengthwise of the object support and / or extending along the front or rear of the object support widthwise of the object support. In one embodiment, the strap 42 extends on the outside of left and right portions of the front and rear braces 36, 38 and on the inside of intermediate or middle portions of the front and rear braces (the openings 40 allowing the strap to go from the outside of the brace to the inside, and vice versa). The strap 42 can include one or more buckles 46 to cinch down the strap, thereby securing the object (e.g., container 22) to the object support 18. The buckle(s) 46 allows the shooter to tighten the strap 42 to hold the containers 22 firmly on the object support 18, thereby ensuring the containers 22 remain in position to absorb recoil when the firearm is fired. In one embodiment, the strap 42 can extend through openings or loops of the object to further secure the object to the object support 18. For example, each container 22 can include a loop on the container body through which the strap 42 can extend. In another embodiment, the strap is connected to the container 22, such as by an adhesive, stitching, rivets, or any other suitable attachment method. The strap may be referred to as a harness for securing the object or supplemental weight in position with respect to the object support. The one or more objects or supplemental weights, optionally with the strap, may be referred to as a supplemental weight assembly. Other ways of connecting and / or securing the objects to the object support can be used without departing from the scope of the present disclosure.

[0043] Referring to FIGS. 6-13, the frame 12 includes a first or front frame section 48 and a second or rear frame section 50. The front frame section 48 supports the front firearm support 14 and the rear frame section 50 supports the rear firearm support 16. In the illustrated embodiment, the object support 18 is supported by the front frame section 48, although in other embodiments the object support can be supported by the rear frame section. The front frame section 48 includes a first or forward hub 52, a second or intermediate hub 54, and a plurality of (broadly, at least one) frame portions or members 56 (e.g., struts, bars, tubes, rods, rails, etc.) interconnecting the forward and intermediate hubs. The forward and intermediate hubs 52, 54 include cavities, openings, or bores that receive end portions of the frame portions 56. The frame portions 56 are secured to the forward and intermediate hubs 52, 54 by one or more fasteners. The object support 18, specifically the front support 30, is secured to the intermediate hub 54 with one or more fasteners. In the illustrated embodiment, the frame portions 56 are bent tubes (e.g., metal tubes), that have a generally L-shape, including upstanding segments that have lengths extend upwardly toward the front firearm support for supporting the front firearm support. The frame extending upward to the front firearm support helps to position the front firearm support (and thus the firearm) above the supplemental weight on the object support. Other configurations can be used without departing from the scope of the present disclosure.

[0044] The rear frame section 50 includes a third or rearward hub 58, a rear support frame portion or member 60, and two adjustment frame portions or members 62. The frame portions 60, 62 can comprise struts, bars, tubes, rods, rails, or the like. In the illustrated embodiment, the rear support frame portion 60 comprises a bent tube (e.g., metal tube), that has a generally L-shape, and the adjustment frame portions 62 each comprise a straight tube (e.g., metal tube). The frame portion 60 includes a first segment extending rearwardly and a second upstanding segment having a length extending upward for supporting the rear firearm support. The frame extending upward to the rear firearm support helps to position the rear firearm support (and thus the firearm) above the supplemental weight on the object support. A wall 100 (described in further detail below) extends between the horizontal and upstanding segments of the L-shaped frame portion 60 (and optionally to the rear firearm support) to serve as webbing that reinforces the frame against bending or deformation under the recoil force of the firearm. The webbing serves to further rigidify the frame (e.g., at the bend in the frame portion 60) to oppose recoil force of the firearm to reduce vibration and more effectively transfer the recoil force to the supplemental weight. Other configurations (e.g., other types of webbing, such as ribs, bars, straps, etc.) can be used without departing from the scope of the present disclosure.

[0045] The rear firearm support 16 is fixed to the rear support frame portion 60, such as with one or more fasteners, such that the rear firearm support and the rear frame section 50 do not move relative to one another. The rearward hub 58 includes cavities, openings, or bores that receive end portions of the frame portions 60, 62. The frame portions 56 are secured to the rearward hub 58 by one or more fasteners. The rear support frame portion 60 extends rearward from the rearward hub 58 and the two adjustment frame portions 62 extend forward from the rearward hub and do not move relative to the rearward hub. The adjustment frame portions 62 are parallel to one another (e.g., parallel to the distance D between the front and rear firearm supports 14, 16). In the illustrated embodiment, each adjustment frame portion 62 comprises an elongate cylindrical tube or shaft with an elongate rail or rib extending along one side thereof. This results in each adjustment frame portion having a non-circular cross-sectional shape, and in particular having a keyhole cross-sectional shape.

[0046] Referring to FIGS. 12 and 13, in the illustrated embodiment, the rearward hub 58 comprises a first or upper hub housing 58A, a second or middle hub housing 58B, and a third or bottom hub housing 58C. Each hub housing 58A-C forms a portion of the cavity or opening that the end portions of the frame portions 60, 62 are disposed in. In the illustrated embodiment, each hub housing 58A-C forms about half of the cavity or opening that receives the end portion of the frame portions 60, 62. The upper hub housing 58A and the middle hub housing 58B form the cavity or opening that receives the end portion of the rear support frame portion 60. The middle hub housing 58B and the bottom hub housing 58C form the two cavities or openings that receive the end portions of the respective adjustment frame portions 62. This configuration allows the cavities or openings to be formed without any draft, resulting a better connection (no relative movement). As known in the art, a draft is the slight taper added to a feature of a part (to prevent the feature from being parallel to the motion of mold opening) to allow the mold forming the part to release cleanly from the part. Typical drafts are about 1-2 degrees. If the rearward hub was an integrally formed, one-piece component, the cavities or openings for the frame portions would have such drafts, thereby allowing a small degree of undesirable movement between the rearward hub and the frame portions. However, because the rearward hub 58 comprises multiple hub housing 58A-C, the cavities or openings for the frame portions 60, 62 have not such drafts. This allows the frame portions 60, 62 to be connected to the hub housings 58A-C by connections having no relative movement.

[0047] In one embodiment, the hub housings 58A-C are clamped onto the frame portions 60, 62, via the fasteners (the fasteners can extend into and even through the frame portions). In the illustrated embodiment, one set of fasteners (e.g., two fasteners) extends downward through aligned openings in the hub housings 58A-C and in the rear support frame portion 60 and are secured with nuts on the underside of the bottom hub housing 58C to secure the rear support frame portion to the rearward hub 58 and to secure the hub housings together. Each adjustment frame portion 62 is secured to the rearward hub 58 with another set of fasteners (e.g., two fasteners), which in the illustrated embodiment extend upward through aligned openings in the bottom hub housing 58C and the adjustment frame portion, and into openings in the middle hub housing 58B. These openings in the middle hub housing 58B can be threaded to threadably engage the fasteners (e.g., bolts). In the illustrated embodiment, these openings in the middle hub housing 58C are blind holes.

[0048] The hub housings 58A-C may or may not be in contact with one another. For example, the upper and middle hub housings 58A-B can clamp the rear support frame portion 60 therebetween, with the upper and middle hub housing not being in contact with one another. Likewise, the middle and bottom hub housings 58B-C can clamp the two adjustment frame portions 62 therebetween, with the middle and bottom hub housings not being in contact with one another. The lack of contact allows the hub housing 58A-C to securely clamp the frame portions 60, 62.

[0049] In one embodiment, the hub housings 58A-C are formed of metal or plastic. For example, the hub housings 58A-C can be formed by die-casting a metal in a mold. Other ways of forming the hub housing 58A-C can be used without departing from the scope of the present disclosure.

[0050] Referring back to FIGS. 6-11, the front firearm support 14 and the rear firearm support 16 are moveable relative to one another to change the distance D (FIG. 5A) between the front and rear firearm supports. This adjustability allows the shooter to configure the shooting rest 10 to the length of the firearm being used. In the illustrated embodiment, the frame 12 enables the relative movement of the front and rear firearm supports 14, 16. The frame 12 is moveable or reconfigurable between a first or extended configuration (FIGS. 6 and 11) and a second or retracted configuration (FIGS. 7 and 9). The front frame section 48 and the rear frame section 50 are moveable with respect to one another to move the front and rear firearm supports 14, 16 toward or away from one another. In general, the rear frame section 50 slides forward or backward relative to the front frame section 48 to move the rear firearm support 16 closer to or further away from the front firearm support 14. The rear frame section 50 is moveable to different positions relative to the front frame section 48. When the rear frame section 50 is in a first or forward-most position, the frame 12 is in the retracted configuration. When the rear frame section 50 is in a second or rearward-most position, the frame 12 is in the extended configuration. The rear frame support 50 is moveable to a plurality of intermediate positions between the forward-most and rearward-most positions (frame 12 is configurable in a plurality of intermediate configurations). This allows the user to move the front and rear firearm supports 14, 16 relative to one another to so that the distance D between the front and rear firearm supports is suitable for the firearm being used. Desirably, the portions of the frame that permit the length adjustment of the frame are relatively vertically compact such that they do not require substantial space below the object support so the supplemental weight on the object support can be relatively low to provide room below the firearm (e.g., room to change firearm magazines without needing to remove the firearm from the rest). In the illustrated embodiment, the respective frame portions permitting length adjustment lie in generally the same horizontal plane such that the height of the adjustment arrangement is not much higher than the height of the frame portions (e.g., compared to if some adjustment frame portions were above other adjustment frame portions).

[0051] In the illustrated embodiment, the intermediate hub 54 has through-bores or passageways the adjustment frame portions 62 extend in (and through). The adjustment frame portions 62 can slide along their respective through-bore to move the rear firearm support 16 relative to the front firearm support 14. The through-bores of the intermediate hub 54 have cross-sectional shapes that match the cross-sectional shapes of the adjustment frame portions 62. The non-circular cross-sectional shape of each adjustment frame portion 62 prevents the adjustment frame portions from rotating within the through-bore. Further, the elongate rail extending along the side of each adjustment frame portion 62 provides additional structural support and serves as a guide for the sliding movement of the adjustment frame portion.

[0052] Referring to FIGS. 6 and 8-11, the shooting rest 10 includes a frame retainer 64 for selectively securing the front and rear frame sections 48, 50 (broadly, the front and rear firearm supports 14, 16) relative to one another.  In particular, the frame retainer 64 selectively permits the front and rear firearm supports 14, 16 to move relative to one another to change the distance D between them and secures the front and rear firearm supports 14, 16 relative to one another at the distance selected by the user.  In other words, the frame retainer 64 selectively secures the frame 12 in the extended configuration, the retracted configuration, and the plurality of intermediate configurations.  The frame retainer 64 is moveable between a first or retaining configuration (FIGS. 9 and 11) and a second or release configuration (FIG. 10).  In the retaining configuration, the frame retainer 64 secures and holds the frame 12 in its configuration.  The frame retainer 64 inhibits the front and rear frame sections 48, 50, and therefore the front and rear firearm supports 14, 16, from moving relative to one another (e.g., relative to one another along a longitudinal axis of the shooting rest 10 which is parallel to the distance D, and generally parallel to the firearm when the firearm is supported by the shooting rest, the longitudinal axis extends in a forward-rearward direction).  The frame retainer 64 engages the adjustment frame portions 62 (broadly, the rear frame section 50) to inhibit their movement.  In the release configuration, the frame retainer 64 permits the frame 12 to move to another configuration.  The frame retainer 64 permits the front and rear frame sections 48, 50, and therefore the front and rear firearm supports 14, 16, to moving relative to one another (e.g., relative to one another along the longitudinal axis of the shooting rest 10) to change the distance D.  The frame retainer 64 is disengaged with the adjustment frame portions 62 (broadly, the rear frame section 50) to permit their movement.

[0053] In the illustrated embodiment, the frame retainer 64 is connected to the intermediate hub 54. The frame retainer 64 includes a pivot hub 66, a frame retainer actuator 68, and two (broadly, at least one) keepers or detents 70. The pivot hub 66 is connected to the intermediate hub 54 by a pivot connection 72. The pivot connection 72 can be formed by a fastener (e.g., bolt, screw, etc.). The pivot connection 72 defines a pivot axis about which the pivot hub 66 rotates. The pivot axis is generally perpendicular to the longitudinal axis and is generally vertical when the shooting rest 10 is on the support surface. The frame retainer actuator 68 is connected to the pivot hub 66 and extends from the pivot hub. The frame retainer actuator 68 pivots or rotates (broadly, moves) the pivot hub 66 about the pivot connection 72. In the illustrated embodiment, the frame retainer actuator 68 comprises a lever or bar with a handle 74 at an end opposite the pivot hub 66. The lever extends laterally outward of the frame 12 and the object support 18. As a result, the handle 74 is positioned laterally outboard (e.g., outboard of one side) of the frame 12 and the object support 18. This positions the handle 74 to be easily engaged and moved by the user or shooter while the shooting rest rests with its feet on a support surface. The keepers 70 are connected to and move with the pivot hub 66. In the illustrated embodiment, the keepers 70 comprise pins. Each adjustment frame portion 62 includes a plurality of openings or recesses 76 extending along the length of the adjustment frame portion. Each keeper 70 is sized and shaped to be inserted into the openings 76 of one of the adjustment frame portion 62, to fix or lock the position of the adjustment frame portion relative to the intermediate hub 54. Each keeper 70 can also extend through an opening in the intermediate hub 54. Accordingly, each keeper 70 is moveable between a respective first or retaining position (where the keeper extends into one of the openings 76) and a respective second or release position (where the keeper does not extend into one of the openings). The keepers 70 are in their respective retaining positions when the frame retainer 64 is in the retaining configuration, and are in their respective release positions when the frame retainer is in the release configuration.

[0054] The openings 76 of the adjustment frame portions 62 define discrete positions for fixing the adjustment frame portions 62 relative to the intermediate hub 54.  As a result, the rear frame section 50 is moveable at discrete increments between the forward-most position and the rearward-most position.  In other words, the rear frame section 50 can only be secured in position relative to the front frame support 48 in one of a plurality of preset, discrete positions.  Thus, the front and rear firearm supports 14, 16 are moveable relative to one another to change the distance D at discrete increments.  Each opening 76 defines one of the extended configuration, the retracted configuration, or one of the intermediate configurations.

[0055] The frame retainer actuator 68 is moveable between a first or retaining position (FIGS. 9 and 11) and a second or release position (FIG. 10). When the frame retainer actuator 68 is in the retaining position, the frame retainer 64 is in the retaining configuration. When the frame retainer actuator 68 is in the release position, the frame retainer 64 is in the release configuration. In the illustrated embodiment, the frame retainer 64 is biased toward the retaining configuration by a spring 78. In particular, the spring 78 biases the frame retainer actuator 68 towards its retaining position. One end of the spring 78 is attached to the frame retainer actuator 68 and the other end is attached to the object support 18.

[0056] The user selectively moves the frame retainer 64 between the retaining and release configurations to adjust the distance D between the front and rear firearm supports 14, 16. In the illustrated embodiment, the user moves the frame retainer actuator 68 (the handle 74 thereof) rearward from its retaining position toward its release position to move the frame retainer 64 from the retaining configuration toward the release configuration. As the frame retainer actuator 68 moves, the actuator pivots the pivot hub 66 about the pivot connection 72, thereby disengaging the keepers 70 from the adjustment frame portions 62 (broadly, the rear frame section 50). The keepers 70 move from their retaining positions to their release positions, withdrawing the keepers from the openings 76 the keepers where in. This allows the adjustment frame portions 62 to slide forward and rearward in the intermediate hub 54 to adjust the distance D between the front and rear firearm supports 14, 16. After the desired distance D is achieved, the frame retainer actuator 68 moves forward from its release position back towards its retaining position (manually by the user and / or by the spring 78). This pivots the pivot hub 66 in the opposite direction about the pivot connection 72, reengaging the keepers 70 with the adjustment frame portions 62 (broadly, the rear frame section 50). The keepers 70 move from their release positions to their retaining positions. The keepers 70 are inserted into whichever openings 76 the keepers are aligned with. The user may move the rear frame section 50 slightly forward or rearward to align the openings 76 with the keepers 70.

[0057] The shooting rest 10 can include a guide 80 (FIG. 8) for guiding the movement of the frame retainer actuator 68 between its retaining and release positions. In the illustrated embodiment, the guide 80 comprises a slot in the object support (e.g., one of the flanges thereof) through which the frame retainer actuator 68 extends. The guide 80 provides support for the frame retainer actuator 68 as the frame retainer actuator is moved between its retaining and release positions.

[0058] Other configurations of the frame retainer can be used without departing from the scope of the present disclosure.

[0059] The shooting rest 10 includes a plurality of feet for supporting the shooting rest on the support surface. In the illustrated embodiment, the shooting rest 10 includes to front feet 82 and one rear foot 84. The front feet 82 are fixed relative to the frame 12. In the illustrated embodiment, the front feet 82 are connected to the object support 18 (specifically, the front support 30), such as with fasteners. The rear foot 84 is moveable (e.g., height adjustable) relative to the frame 12. The rear foot 84 can adjust the height or elevation of the rear frame section 50, and thereby the rear firearm support 16 relative to the support surface. The rear foot 84 is connected to a threaded shaft threadably coupled to the rear support frame portion 60. A knob or actuator is connected to threaded shaft to rotate the threaded shaft. By rotating the knob, the rear foot 84 moves closer or further away from the frame 12, thereby adjusting the height of the rear firearm support 16. Other configurations are within the scope of the present disclosure. For example, the front feet can be height adjustable and / or the rear foot can be fixed relative to the frame.

[0060] Referring to FIGS. 12 and 13, the rear firearm support 16 defines a pocket sized and shaped for receiving a rear portion (e.g., buttstock) of the firearm, including the butt of the firearm. In the illustrated embodiment, the rear firearm support 16 comprises an assembly including the stop 20, a cover 86, and a recoil pad 88. The stop 20 is fixed to the frame 12. In the illustrated embodiment, the stop 20 is secured to the frame 12 (e.g., rear support frame portion 60) by fasteners (e.g., bolts). The recoil pad 88 is configured to absorb recoil of the firearm when the firearm is fired. The recoil pad 88 is arranged to be positioned between the firearm (e.g., butt of the firearm) and the stop 20. The cover 86 assists in preventing damage to the buttstock of the firearm. A similar rear firearm support is disclosed in U.S. Pat. No. 9,702,653, which is hereby incorporated by reference in its entirety.

[0061] Still referring to FIGS. 12 and 13, the shooting rest 10 can include a vibration dampener 90. The vibration dampener 90 is supported by the frame 12. The vibration dampener absorbs or reduces vibrations in the shooting rest 10 caused by the recoil of the firearm. The vibration dampener 90 is moveable relative to the stop 20 (also the frame 12, and the rear firearm support 16) to absorb recoil vibrations caused by the firearm when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. The vibration dampener 90 reduces the transmission of vibration and shock forces to the shooter during firing events. In the illustrated embodiment, the vibration dampener 90 is adjacent the rear firearm support 16. Specifically, the vibration dampener 90 is disposed below the rear firearm support 16. This positioning places the vibration dampener 90 in proximity to the source of recoil forces transferred through the stop 20, allowing the vibration dampener to absorb vibrations before the vibrations propagate through the remainder of the shooting rest 10.

[0062] In the illustrated embodiment, the vibration dampener 90 includes a mass 92 (e.g., suspended mass). The mass 92 can be made of a heavy metal (e.g., steel) or any other suitably heavy material. The mass 92 is moveable relative to the stop 20 to absorb recoil vibrations when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. The movement of the mass 92 relative to the stop 20 dissipates vibration energy from the recoil event, thereby reducing the vibration experienced by the shooter. The vibration dampener 90 includes an elastomeric isolator 94 supporting the mass 92. The elastomeric isolator 94 permits the mass 92 to move relative to the stop 20 when the firearm is supported by the front and rear firearm supports 14, 16 and is fired. The elastomeric isolator 94 can be made out of any suitable elastomeric, such as rubber, silicone, and the like. In the illustrated embodiment, the elastomeric isolator 94 suspends the mass 92. The isolator 94 allows the mass 92 to move in response to vibrations (broadly, recoil forces) while providing a restoring force that returns the mass to its home position (as shown in FIGS. 12 and 13) after the recoil event subsides.

[0063] The isolator 94 includes a frame connector 98 and a mass connector (hidden by the mass 92). The frame connector 98 connects to the frame 12 and the mass connector connects to the mass 92. The mass connector can have a generally disk or washer shape with an opening therein for the mass 92 to extend through. In the illustrated embodiment, the isolator 94 is attached to a wall 100 (broadly, webbing) of the rear support frame portion 60. The wall 100 has an opening the vibration dampener 90 is disposed in, with the mass 92 being suspended in the opening. The frame connector 98 connects to the wall 100. In the illustrated embodiment, the frame connector 98 comprises a body extending around the perimeter of the opening and defining a channel that receives the edge margin of the wall 100 that defines the opening. Other ways of connecting the vibration dampener to the frame can be used without departing from the scope of the present disclosure. In the illustrated embodiment, the elastomeric isolator 94 comprises a plurality of elastomeric spokes or supports 96 suspending the mass 92. In the illustrated embodiment, the isolator 94 includes five spokes 96, although more or fewer spokes can be used without departing from the scope of the present disclosure. The elastomeric spokes 96 extend between the mass connector and the frame connector 98. The spokes 96 permit multi-directional movement of the mass 92, allowing the vibration dampener 90 to absorb vibrations caused by the recoil. Other configurations can be used (e.g., other types of vibration dampeners can be used or the vibration dampener can be omitted) without departing form the scope of the present disclosure.

[0064] Referring to FIGS. 14-19, the front firearm support 14 includes a cradle 102, a base assembly 104, and a threaded rod or shaft 106. Cradle 102 is supported by the base assembly 104. The cradle 102 is configured to receive and support the forward portion (e.g., fore-end) of the firearm. The cradle 102 has a U-shaped or V-shaped (broadly, saddle-shaped) recess for receiving the forward portion of the firearm. The cradle 102 can be made of any suitable material, such as plastic. In the illustrated embodiment, the cradle 102 is injection molded. The cradle 102 includes a perimeter wall defining the exterior shape of the cradle and plurality of interior walls or ribs strengthening the perimeter wall. Other configurations of the cradle 102 can be used without departing from the scope of the present disclosure. For example, the cradle can be a bag.

[0065] The threaded shaft 106 is connected to and extends downward from the base assembly 104. The threaded shaft 106 is disposed in a bore 108 of the frame 12 (specifically, the forward hub 52). The threaded shaft 106 can move up and down within the bore 108. The shooting rest 10 includes a height or elevation adjustment actuator 110. The elevation adjustment actuator 110 raises and lowers the cradle 102 relative to the frame 12. In the illustrated embodiment, the elevation adjustment actuator 110 comprises a wheel or disk threadably coupled to the threaded shaft 106 and resting on the frame 12 (specifically, the forward hub 52). The elevation adjustment actuator 110 supports the front firearm support 14. Rotating the elevation adjustment actuator 110 in one direction (e.g., clockwise) lowers the threaded shaft 106 in the bore 108, thereby lowering the cradle 102. Rotating the elevation adjustment actuator 110 in the opposite direction (e.g., counterclockwise) raises the threaded shaft 106 in the bore 108, thereby raising the cradle 102. In the illustrated embodiment, a bearing 112 is disposed between the frame 12 and the elevation adjustment actuator 110 to make it easier to rotate the elevation adjustment actuator. Other ways of changing the elevation of the cradle can be used without departing from the scope of the present disclosure.

[0066] The shooting rest 10 can include an height or elevation retainer 114 for selectively securing the threaded shaft 106 in position in the bore 108. Broadly, the elevation retainer 114 secures the height or elevation of the cradle 102 relative to the frame 12. In the illustrated embodiment, the elevation retainer 114 comprises a knob or actuator 116, a threaded shaft 118, and a keeper or wedge 120. The threaded shaft 118 is threadably coupled to the frame 12 (specifically, the forward hub 52). One end of the threaded shaft 118 is connected to the actuator 116. Rotating the actuator 116 in one direction moves the keeper 120 into engagement with the threaded shaft 106, thereby inhibiting the threaded shaft from moving up and down in bore 108. Rotating the actuator 116 in the other direction moves the keeper 120 out of engagement with the threaded shaft 106, permitting the threaded shaft to move up and down in the bore 108. The user loosens the elevation retainer 114 to change the elevation of the cradle 102 and, after moving the cradle to the desired elevation, the elevation retainer 114 is tightened to secure the cradle in the desired elevation. The keeper 120 can be received in a slot or channel of the threaded shaft 106. This prevents the threaded shaft 106 (and thereby the entire front firearm support 14) from rotating with the elevation adjustment actuator 110 when the elevation adjustment actuator is rotated to change the elevation of the cradle 102 (while allowing the threaded shaft to move upward and downward).  The keeper 120 can be mounted on the end of the threaded shaft 118 of the elevation retainer 114 or can be operatively moved by the threaded shaft of the elevation retainer.  Other ways of securing the elevation of the cradle can be used without departing from the scope of the present disclosure.

[0067] The base assembly 104 includes a base plate 122 and a base mount 124. The base mount 124 supports the base plate 122. The base mount 124 is attached to the upper end of the threaded shaft 106. The threaded shaft 106 extends downward from the base mount 124. The cradle 102 is attached to the base plate 122. In the illustrated embodiment, one or more fasteners secure the cradle 102 to the base plate 122. The base plate 122 and the base mount 124 are moveable relative to one another to adjust the lateral position of the cradle 102 with respect to the frame 12. In the illustrated embodiment, the base plate 122 slides laterally or side-to-side relative to the base mount 124.

[0068] To move the base plate 122 relative to the base mount 124, the shooting rest includes a windage adjustment actuator 126 (adjustment actuator or cradle adjustment actuator). Generally, the windage adjustment actuator 126 moves the cradle 102 laterally or side-to-side relative to the frame 12. This enables the shooter to adjust the lateral position of the cradle 102 to adjust the trajectory or point of aim of the firearm. The windage adjustment actuator 126 includes a knob or handle 128 and a threaded rod 130. The threaded rod 130 is connected to base plate 122 such that the threaded rod can rotate relative to the base plate 122 but cannot move axially relative to the base plate. As a result, the threaded rod 130 (broadly, windage adjustment actuator 126) move axially (e.g., laterally or side-to-side) together. In the illustrated embodiment, the threaded rod 130 extends through two openings (non-threaded openings) of the base plate 122 and is secured axially relative to the base plate by a nut and the actuator 128. The base mount 124 includes a threaded opening or bore 132 through which the threaded rod 130 extends through and threadably engages.

[0069] As shown in FIGS. 16A-C, the user rotates the windage adjustment actuator 126 (e.g., knob 128) to move the cradle 102 side-to-side to various different windage or lateral positions. The user rotates the windage adjustment actuator 126 in one direction to move the cradle leftward and rotates the windage adjustment actuator in the opposite direction to move the cradle rightward. As the user rotates the windage adjustment actuator 126, the threaded rod 130 rotates in the threaded opening 132 of the base mount 124 thereby moving the threaded rod axially relative to the base mount, which in turn moves the base plate 122 and the cradle 102 axially relative to the base mount as well. Other configurations of the windage adjustment actuator can be used without departing from the scope of the present disclosure. The elevation adjustment actuator 110 and the windage adjustment actuator 126 cooperate to provide the shooter with precise control over both the vertical and lateral positioning of the firearm for accurate aiming.

[0070] Referring to FIGS. 17-19, the base plate 122 and the base mount 124 connected to one another in a way that inhibits the base plate from lifting off the base mount (independent of the windage adjustment actuator 126). The base mount 124 includes first and second (front and rear) inclined or angled surfaces 134. The front inclined surface 134 extends forward as the surface extends upward. The rear inclined surface 134 extends rearward as the surface extends upward. The rear inclined surface 134 engages a corresponding rear inclined surface 136 of the base plate 122. The base assembly 104 includes a connector or connection plate 138 that includes a front inclined surface 140 corresponding to and engaging the front inclined surface 134 of the base mount 124. The inclined surfaces 136, 140 slide relative to the inclined surfaces 134 of the base mount 124 as the cradle 102 is moved side-to-side by the windage adjustment actuator 126. The inclined surfaces 136, 140 also capture the base mount 124 to prevent the base plate 122 from lifting off the base mount. The connector 138 is connected to the base plate 122 with one or more fasteners. Other configurations can be used without departing from the scope of the present disclosure.

[0071] Referring back to FIGS. 14 and 15, the front firearm support 14 can include a strap 142 to secure the firearm in the cradle 102. The strap 142 can extend over the firearm to limit or reduce the upward movement of the forward portion of the firearm during recoil. In the illustrated embodiment, the strap 142 is made of an elastomeric, such as rubber, silicone, and the like. The strap 142 includes a plurality of openings along its length. The cradle 102 includes ears or anchors 144 for attaching the strap 142 to the cradle 102. Each anchor 144 can extend through one of the openings in the strap 142 to connect each side of the strap to the cradle 102 and hold the forward portion of the firearm in the saddle-shaped recess of the cradle. Other configurations of the strap and anchors can be used without departing from the scope of the present disclosure.

[0072] It will be appreciated that the shooting rest provides a firearm holding space and space thereunder to permit access to the firearm (e.g., to magazines thereof) relatively unimpeded by the rest and supplemental weight carried by the object support. For example, the shooting rest is free of a frame member extending between the front and rear supports (e.g., along the longitudinal axis or the firearm axis or parallel thereto) that is above the support surface of the object support platform or the object support generally. Such a frame member, such as a frame member connecting the upstanding segments of the front and rear frame sections would assist in rigidifying the frame to reduce vibration and more effectively transmit firearm recoil force to the supplemental weight. It will be appreciated that the frame defines a generally U shape with generally horizontal frame segments extending along the length of the rest and upstanding frame segments at the front and rear ends of the frame. Such a construction is helpful to position the firearm at an elevation providing clearance under the firearm for supplemental weight and for access to the firearm (e.g., magazine). However, such a construction presents a challenge in that the firearm recoil force may tend to flex the frame, such as at the location where the rear frame section turns upward, creating vibration and less effective recoil reduction. Aspects of the present disclosure permit ample space under the firearm (e.g., by reducing height of framing under the object support) and increase rigidity of the frame (e.g., the webbing 100 at the rear frame section) to provide an improved user experience. Other configurations can be used without departing from the scope of the present disclosure.

[0073] It is appreciated that the person of ordinary skill in the art is readily able to determine the scope of terms of degree such as, but not limited to, “about,”“substantially,” and “generally.”  For example, when a term of degree is used in relation to a numeric value, the person of ordinary skill in the art understands that the term of degree covers an inclusive range of plus or minus 10% of the numeric value, unless clearly indicated or stated otherwise.

[0074] When introducing elements of the present disclosure or the embodiment(s) thereof, the articles "a", "an", "the" and "said" are intended to mean that there are one or more of the elements.  The terms "comprising", "including" and "having" are intended to be inclusive and mean that there may be additional elements other than the listed elements.

[0075] As various changes could be made in the above constructions and methods without departing from the scope of the disclosure, it is intended that all matter contained in the above description and shown in the accompanying drawings shall be interpreted as illustrative and not in a limiting sense.

Claims

1. A shooting rest for use by a shooter when shooting a firearm, the shooting rest comprising:a frame;a front firearm support supported by the frame, the front firearm support configured to support a forward portion of the firearm;a rear firearm support supported by the frame, the rear firearm support configured to support a rear portion of the firearm;an object support supported by the frame, the object support configured to receive and support an object, the object support being adjustable in size; anda stop configured to inhibit rearward movement of the firearm relative to the shooting rest when the firearm is supported by the front and rear firearm supports and is fired.

2. The shooting rest of claim 1, wherein the object support is adjustable in length, the length of the object support being parallel to a distance between the front and rear firearm supports.

3. The shooting rest of claim 1, further comprising an object support retainer configured to selectively inhibit the size of the object support from changing.

4. The shooting rest of claim 1, wherein the object support comprises a tray.

5. The shooting rest of claim 1, wherein the object support includes a first support fixed to the frame and a second support moveable relative to the first support and the frame to change the size of the object support.

6. The shooting rest of claim 1, further comprising a container configured to be positioned on the object support, the container having an interior configured to receive a flowable material to increase an effective weight of the shooting rest to reduce recoil felt by the shooter when the firearm is supported by the front and rear firearm supports and is fired.

7. The shooting rest of claim 1, wherein the object support includes a first brace configured to inhibit forward movement of the object supported by the object support relative to the object support when the firearm is supported by the front and rear firearm supports and is fired.

8. The shooting rest of claim 7, wherein the object support includes a second brace configured to inhibit rearward movement of the object supported by the object support relative to the object support when the firearm is supported by the front and rear firearm supports and is fired.

9. The shooting rest of claim 1, wherein the object support includes a connector configured to connect the object to the object support.

10. The shooting rest of claim 9, wherein the connector comprises an opening configured to receive a strap.

11. The shooting rest of claim 1, wherein the front firearm support and the rear firearm support are moveable relative to one another to change a distance between the front and rear firearm supports.

12. The shooting rest of claim 11, wherein the frame is adjustable in length to move the front firearm support relative to the rear firearm support.

13. The shooting rest of claim 12, wherein the object support is adjustable in size independent of changing the distance between the front and rear firearm supports.

14. The shooting rest of claim 1, wherein the size of the object support is adjustable without use of a tool.

15. The shooting rest of claim 1, wherein the front firearm support includes a cradle, the shooting rest further comprising an elevation adjustment actuator configured to raise and lower the cradle relative to the frame.

16. The shooting rest of claim 15, further comprising a windage adjustment actuator configured to move the cradle side-to-side relative to the frame.

17. A recoil-reducing shooting rest for use by a shooter when shooting a firearm, the shooting rest comprising:a frame;a front firearm support supported by the frame, the front firearm support configured to support a forward portion of the firearm;a rear firearm support supported by the frame, the rear firearm support configured to support a rear portion of the firearm; a vibration dampener supported by the frame, the vibration dampener being moveable relative to the stop to absorb recoil vibrations when the firearm is supported by the front and rear firearm supports and is fired; anda stop configured to inhibit rearward movement of the firearm relative to the firearm rest when the firearm is supported by the front and rear firearm supports and is fired.

18. The recoil-reducing shooting rest of claim 17, wherein the vibration dampener includes a suspended mass, the mass being moveable relative to the stop to absorb recoil vibrations when the firearm is supported by the front and rear firearm supports and is fired.

19. The recoil-reducing shooting rest of claim 18, wherein the vibration dampener includes an elastomeric isolator supporting the mass and permitting the mass to move relative to the stop when the firearm is supported by the front and rear firearm supports and is fired.

20. The recoil-reducing shooting rest of claim 19, wherein the elastomeric isolator comprises a plurality of elastomeric spokes suspending the mass.

21. The recoil-reducing shooting rest of claim 17, wherein the vibration dampener is adjacent the rear firearm support.

22. A recoil-reducing shooting rest for supporting a firearm, the shooting rest comprising:a frame; a front firearm support supported by the frame, the front firearm support configured to support a forward portion of the firearm;a rear firearm support supported by the frame; the rear firearm support configured to support a rear portion of the firearm;a stop configured to inhibit rearward movement of the firearm relative to the firearm rest when the firearm is supported by the firearm rest and fired;a supplemental weight support supported by the frame and configured to hold supplemental weight to increase effective mass of the shooting rest to reduce firearm recoil force felt by a user; wherein the firearm rest is free of a frame member above the supplemental weight support extending between the front and rear supports.

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