Aric K Plumley

US Patent:

8550624, Oct 8, 2013

Filed:

Nov 6, 2009

Appl. No.:

12/614344

Inventors:

Thomas D. Padrick - Seattle WA, US
Jack T. Holladay - Bellaire TX, US
Dan Bao Tran - Long Beach CA, US
Aric K. Plumley - Huntington Beach CA, US
Richard J. Michaels - Irvine CA, US
Jeff Padgett - Long Beach CA, US

Assignee:

Wavetec Vision Systems, Inc. - Aliso Viejo CA

International Classification:

A61B 3/10
A61B 3/00

US Classification:

351205, 351200, 351211, 351221

Abstract:

An ophthalmic system for use in performing angular measurements in relation to a patient's eye. The ophthalmic system can include an optical angular measurement device that can provide angular indicia by, for example, projecting an image of an angular measurement reticle onto a patient's eye or by superimposing an image of an angular measurement reticle onto an image of the patient's eye. The ophthalmic system can include an optical refractive power measurement device for providing desired angular orientations for ocular implants or for incisions. The ophthalmic system can be used, for example, to align a toric intraocular lens to a desired angular orientation.

US Patent:

20050274751, Dec 15, 2005

Filed:

Jun 13, 2005

Appl. No.:

11/150979

Inventors:

Aric Plumley - Huntington Beach CA, US
Ryan Redenbaugh - Huntington Beach CA, US

International Classification:

A41D027/22
B63C011/10

US Classification:

223085000

Abstract:

Described is a wetsuit rinsing hanger that allows a user to hang up the wetsuit, attach the wetsuit rinsing hanger to a hose and turn on the water. The invention includes a water inlet at an attachment and a hollow elongated body member in the shape of a hanger with appropriately placed holes for rinsing the wetsuit. The water is taken into the elongated body member through the attachment and is then passed through the holes to the wetsuit. The water then flows through the wetsuit with the assistance of gravity to thoroughly rinse the wetsuit. Additionally, a sensor system may be included that notifies a user when the wetsuit has be thoroughly rinsed and dried.

US Patent:

20080247855, Oct 9, 2008

Filed:

Apr 9, 2007

Appl. No.:

11/697981

Inventors:

Glen L. Lee - Cerritos CA, US
Jeremy M. Wilkins - Huntington Beach CA, US
Francisco J. Hernandez - Huntington Beach CA, US
Aric Plumley - Huntington Beach CA, US

International Classification:

B60P 1/00

US Classification:

414546

Abstract:

A vehicle mounted carrier comprising a vertical lift removably secured to a vehicle. The lift further comprising: a base removably secured to the lift and threadably engaging the lift to effectuate vertical movement, and having one or more hooks for removably securing to an article adapted to receive the hooks.

US Patent:

60255765, Feb 15, 2000

Filed:

Mar 4, 1998

Appl. No.:

9/034876

Inventors:

Anthony J. Beck - Sante Cruz CA
John C Daderko - Lansford PA
Lawrence P Jarrett - Wind Gap PA
Bruce H Greenawald - Orefield PA
Aric K Plumley - La Selva Beach CA

International Classification:

H05B 306
F27D 1100
F17B 100
A47F 508
F24H 118

US Classification:

219521

Abstract:

A skid with built-in heating elements for heating and supporting a compressed-gas dispensing bulk vessel, or cylinder, while allowing for manipulation and transportation of the cylinder and skid assembly. The skid incorporates all of the features necessary for handling a cylinder while also providing a means for heating the cylinder in a controlled manner. The heater skid comprises a framework for receiving the cylinder and one or more heaters coupled to the framework so that the received cylinder is proximate to the heaters, thus, allowing the heaters to heat the cylinder. A control system for the heaters is also disclosed.

US Patent:

20230116898, Apr 13, 2023

Filed:

Dec 13, 2022

Appl. No.:

18/065182

Inventors:

- Coppell TX, US
Aric Plumley - Costa Mesa CA, US

Assignee:

Neurolens, Inc. - Coppell TX

International Classification:

A61B 3/08
A61B 3/00
A61B 3/113

Abstract:

Embodiments of the invention include a method to determine a binocular alignment, the method comprising: measuring a disassociated phoria of a first eye and a second eye of a patient at an apparent distance; and determining an accommodative convergence of the first eye and the second eye at the apparent distance using the measured disassociated phoria. In other embodiments, a system to determine a binocular alignment comprises a stereo display, for a projection of images for a first eye and a second eye; an accommodation optics, to modify the projection of the images according to an apparent distance; an eye tracker, to track an orientation of the first eye and the second eye; and a computer, coupled to the stereo display, the accommodation optics and the eye tracker, to manage a determination of the binocular alignment.

US Patent:

20210085173, Mar 25, 2021

Filed:

Sep 23, 2019

Appl. No.:

16/579826

Inventors:

- Costa Mesa CA, US
Aric Plumley - Huntington Beach CA, US

Assignee:

eyeBrain Medical, Inc. - Aliso Viejo CA

International Classification:

A61B 3/08
A61B 3/00
A61B 3/113

Abstract:

Embodiments of the invention include a method to determine a binocular alignment, the method comprising: measuring a disassociated phoria of a first eye and a second eye of a patient at an apparent distance; and determining an accommodative convergence of the first eye and the second eye at the apparent distance using the measured disassociated phoria. In other embodiments, a system to determine a binocular alignment comprises a stereo display, for a projection of images for a first eye and a second eye; an accommodation optics, to modify the projection of the images according to an apparent distance; an eye tracker, to track an orientation of the first eye and the second eye; and a computer, coupled to the stereo display, the accommodation optics and the eye tracker, to manage a determination of the binocular alignment.

US Patent:

20190204619, Jul 4, 2019

Filed:

Dec 31, 2017

Appl. No.:

15/859660

Inventors:

- Costa Mesa CA, US
Aric Plumley - Huntington Beach CA, US
Gergely T. Zimanyi - Berkeley CA, US

Assignee:

eyeBrain Medical, Inc. - Costa Mesa CA

International Classification:

G02C 7/02
G02C 7/06

Abstract:

An eye-strain reducing lens is characterized by an x-y-z coordinate system, and includes a distance-vision region, having a negative distance-vision optical power, configured to refract a light ray, directed by a source at a distance-vision region point at a distance-vision x-distance from a center of the coordinate system, to propagate to an eye-center-representative location; and a near-vision region, having a near-vision optical power that matches the distance-vision optical power within 0.5 D, configured to refract a light ray, directed by the source at a near-vision region point at a near-vision x-distance from the center of the coordinate system, to propagate to an x-z location of the eye-center representative location at a corresponding y height; wherein the near-vision x-distance is smaller than the distance-vision x-distance.

US Patent:

20190204622, Jul 4, 2019

Filed:

Dec 31, 2017

Appl. No.:

15/859665

Inventors:

- Costa Mesa CA, US
Aric Plumley - Huntington Beach CA, US
Gergely T. Zimanyi - Berkeley CA, US

Assignee:

eyeBrain Medical, Inc. - Costa Mesa CA

International Classification:

G02C 7/06

Abstract:

A convergence-reducing lens, wherein a central normal of the convergence-reducing lens defines a z-axis, and a center of the convergence-reducing lens defines a tangential, centered x-y plane, together defining a coordinate system, the convergence-reducing lens comprising a distance-vision region, having a negative distance-vision optical power, to refract a light ray, directed parallel to the z-axis at a distance-vision region point at an x-distance from a y-z plane of the coordinate system, so that its extension intersects the y-z plane at a distance-vision intersection z-distance; and a near-vision region, having a near-vision optical power that matches the distance-vision optical power within 0.5D. to refract a light ray, directed parallel to the z-axis at a near-vision region point at the x-distance of the distance-vision region point, at a corresponding y height, so that its extension intersects the y-z plane at a near-vision intersection z-distance that is smaller than the distance-vision intersection z-distance.