Abstract: A device insertion tool can include a body and a light redirecting structure. The body can extend along a central longitudinal axis between forward and aft ends. The body can include a device mount portion at the forward end to hold an optic and a handle portion at the aft end configured to be held. The body can be inserted into an anterior chamber of the eye with the optic mounted on the device mount portion at the forward end. The light redirecting structure can be engaged with the body between the forward and aft ends. The light redirecting structure can be one of at least one mirror and at least one prism. The light redirecting structure can be directed at the forward end and can be configured to redirect light traveling from the forward end toward the aft end transverse to the central longitudinal axis.

Abstract: An accommodating intraocular lens assembly can include lenses and stanchions. The lenses can be configured for positioning in an eye and have respective anterior and posterior sides. The stanchions can have respective distal ends connected to one of the lenses and respective base ends. The base ends can be configured for positioning within a capsular bag of the eye, in a ciliary sulcus, or on the ciliary muscle of the eye. Contraction of the ciliary muscle moves the base ends towards a central optic axis of the eye. The stanchions can be configured such that at least one of the lenses rotates relative to the other about the central optic axis in response to contraction of the ciliary muscle. In one or more other embodiments, the lenses can move laterally relative to one another during contraction and include a plurality of sub-lenses with different levels of additive optical power.

Abstract: An intraocular optic assembly can include a plurality of stanchions and at least one optic. Each of the stanchions can extend between a respective base and distal ends. The base ends can be disposed in spaced relation to one another about a first arcuate periphery. The distal ends can be disposed in spaced relation to one another about a second arcuate periphery. The first arcuate periphery can have a greater radius than the second arcuate periphery. The at least one optic can have a central optic axis, an anterior side, a posterior side, and a center disposed between the anterior side and the posterior side through which the central optic axis extends. The at least one optic can be connected with each of the plurality of distal ends whereby the center of the optic is moved along the central optic axis in response to contraction of the first arcuate periphery.

Abstract: An accommodating intraocular lens assembly can include a first lens, a first stanchion, a second lens, and a second stanchion. The first lens can have a first anterior side and a first posterior side. The first stanchion can have a first distal end connected to the first lens and a first base end. The second lens can have a second anterior side and a second posterior side. The second stanchion can have a second distal end connected to the second lens and a second base end. The first lens and the second lens can move laterally relative to one another during contraction of the ciliary muscle in a vertically-extending plane containing the optic axis of the eye and substantially centered in the eye.

Abstract: A method of inserting an intraocular optic assembly having at least an optic and ring members that are interconnected to one another with a plurality of stanchions can include winding at least one of the structures relative to at least another one of the other structures about a central optic axis whereby at least some of the stanchions are drawn around an intermediate or middle ring member and in between the optic and an outer ring member. The method can also include folding, after the winding, the intraocular optic assembly in half while retaining the at least some of the plurality of stanchions in between the optic and the outer ring member. The method can also include inserting, after the folding, the intraocular optic assembly in an eye through a slit in a cornea of the eye.

Abstract: Improvements to accommodating intraocular optic assemblies are disclosed herein. The accommodating intraocular optic assembly can include an optic and at least one stanchion. The at least one stanchion can extend a length between a base end and a distal end. The distal end can be operably engaged with the optic directly or indirectly. The at least one stanchion can include an outer sleeve defining a through-aperture. The at least one stanchion can also include at least one inner member positioned within the through-aperture.

Abstract: A slit lamp and biomicroscope assembly can include a viewing system including a biomicroscope; an illumination system including a slit lamp with a light source and a light processing system with a first actuator; a positioning system supporting the biomicroscope and the slit lamp and including second and third actuators to position the biomicroscope along horizontal and vertical axes; and a user interface handle. The user interface handle can be graspable by a hand of a user and supported on the positioning system proximate to the biomicroscope such that a user looking into the biomicroscope can reach the user interface handle. The user interface handle can include a plurality of input devices including input devices in communication with the actuators.

Abstract: A method, system, and program applies machine learning in displaying a patient's medical state. A first set of data can be received corresponding to a medical state of the patient and defined by a first plurality of positives corresponding to deviations from a healthy state. The first positives are grouped to a second plurality of positives defining by a medical condition. Individual first positives can correlate to a different medical conditions, thus defining a plurality a problem bundles associated with the patient. A mismatch occurs when one of the first positives is not groupable to the second positives of a particular condition. Via machine learning, mismatches are reduced by repeatedly identifying the mismatch and revising a second data set of the relevant medical condition to include the relevant first positive, eliminating the mismatch from a subsequent groupings and displays.

Abstract: A method of implanting an intraocular optic assembly that has at least a first and second optics interconnected to one another with a plurality of stanchions can include rotating the first optic and the second optic relative to one another and thereby drawing the stanchions at least one of between the first optic and the second optic and around one of the first optic and the second optic. The method can also include folding, after the rotating, the intraocular optic assembly while retaining the stanchions in the at least one of between the first optic and the second optic and around one of the first optic and the second optic. The method can also include inserting, after the folding, the intraocular optic assembly in an eye through an incision in a cornea of the eye.

Abstract: A method of managing an electronic health record and displaying a patient's medical state can include receiving a first input corresponding to the medical state, including a first plurality of positives that each correspond to a deviation from a healthy state. The method can also include grouping at least some of the first plurality of positives that collectively correlate to at least one of the medical conditions. The method can also include displaying with a display a statgraph having a plurality of objects including a homunculus plane, nodes projecting away from the plane, axes interconnecting the nodes, and a planar bundling object enveloping at least some of the nodes. The method can also include morphing, on the display controlled by the computing device, a first statgraph into a second statgraph.

Abstract: An intraocular optic assembly can include a first lens, a first plurality of stanchions, a second lens, and a second plurality of stanchions. A central optic axis can extend through centers of the first and second lenses. The first plurality of stanchions can each extend a first distance between a first base end and a first distal end. The first lens can be connected with the first distal ends. The second plurality of stanchions can each extend a second distance between a second base end and a second distal end. The second lens can be connected with the second distal ends. Compression at the peripheries of the stanchions induces movement of the lenses apart from one other.

Abstract: A method of implanting the prosthesis is disclosed. The method includes forming an opening in a host tissue of an eye. The method also includes forming a perimeter of a corneal graft. The method also includes forming a first passageway through the host tissue and a second passageway through the corneal graft. The first passageway and the second passageway can have the same diameter relative to an optic axis of the eye. The method also includes aligning the first passageway and the second passageway whereby the first passageway and the second passageway are in communication with one another. The method also includes positioning a body in the first passageway and the second passageway.

Abstract: A prosthesis configured to be implanted in a cornea of an eye, to interconnect host tissue with a corneal graft, is disclosed herein. The prosthesis can include a body and a slit. The body can extend between first and second ends. The body can define a section of maximum width between the ends. The body can narrow at the ends and converge to first and second tips. The slit can be defined in the body at the first end and can have a width. A portion of the body between the second tip and the section of maximum width can have a width that is less than the width of the slit, whereby the portion of the body between the second tip and the section of maximum width is receivable in the slit.

Abstract: A projectile launching system can include a projectile launcher and a projectile. The projectile launcher can include at least one barrel, a projectile, a firing pin mechanism, an activator, and a power system. The barrel can extend along a longitudinal axis between first and second ends, with an exit port at the second end. The projectile can be positioned in the barrel and include primer, propellant, and a sub-projectile. The firing pin mechanism can be selectively project into the barrel to engage the primer, whereby the propellant is ignited and the projectile is launched out of the barrel. The activator can be engaged with the firing pin mechanism and engageable by a user to control the firing pin mechanism. The power system can rotate the barrel or the projectile as the firing pin mechanism is projecting into the barrel and engaging the primer of the projectile.

Abstract: A method of managing an electronic health record and displaying a patient's medical state can include receiving a first input corresponding to the medical state, including a first plurality of positives that each correspond to a deviation from a healthy state. The method can also include grouping at least some of the first plurality of positives that collectively correlate to at least one of the medical conditions. The method can also include displaying with a display a statgraph having a plurality of objects including a homunculus plane, nodes projecting away from the plane, axes interconnecting the nodes, and a planar bundling object enveloping at least some of the nodes. The method can also include morphing, on the display controlled by the computing device, a first statgraph into a second statgraph.

Abstract: A method of inserting an accommodating intraocular lens assembly having at least an optic and ring members that are interconnected to one another with a plurality of stanchions can include winding at least one of the structures relative to at least another one of the other structures about a central optic axis whereby at least some of the stanchions are drawn around an intermediate or middle ring member and in between the optic and an outer ring member. The method can also include folding, after the winding, the accommodating intraocular lens assembly in half while retaining the at least some of the plurality of stanchions in between the optic and the outer ring member. The method can also include inserting, after the folding, the accommodating intraocular lens assembly in an eye through a slit in a cornea of the eye.

Abstract: An accommodating intraocular lens assembly can include first stanchions, a forward optic, second stanchions, an intermediate member, third stanchions, fourth stanchions, and an aft optic. Each stanchion can extend between a base end and a distal end. The forward optic can be connected with the distal ends of the first stanchions. The intermediate member can be connected with the distal ends of the second stanchions and of the third stanchions. The aft optic can be connected with the distal ends of the fourth stanchions.

Abstract: An accommodating intraocular lens assembly can include a first lens, a first stanchion, a second lens, and a second stanchion. The first lens can have a first anterior side and a first posterior side. The first stanchion can have a first distal end connected to the first lens and a first base end. The second lens can have a second anterior side and a second posterior side. The second stanchion can have a second distal end connected to the second lens and a second base end. The first lens and the second lens can move laterally relative to one another during contraction of the ciliary muscle in a vertically-extending plane containing the optic axis of the eye and substantially centered in the eye.

Abstract: A slit lamp and biomicroscope assembly can include a viewing system including a biomicroscope; an illumination system including a slit lamp with a light source and a light processing system with a first actuator; a positioning system supporting the biomicroscope and the slit lamp and including second and third actuators to position the biomicroscope along horizontal and vertical axes; and a user interface handle. The user interface handle can be graspable by a hand of a user and supported on the positioning system proximate to the biomicroscope such that a user looking into the biomicroscope can reach the user interface handle. The user interface handle can include a plurality of input devices including input devices in communication with the actuators.

Abstract: A trephination apparatus can include a first member, a blade, and a second member. The first member can include a through-aperture and a first internal chamber. The first member can also include opening to the first internal chamber that can surround the through-aperture in a plane. The blade can have an outwardly-facing male profile at least partially matching the through-aperture and have a cutting edge. The second member can include a first body sized to be received in the through-aperture with the blade. The blade can be positionable between the first body and the female profile at the second opening. The second member can also include a second internal chamber with an opening extending about the aperture axis in the plane with an opening to the first internal chamber.