Carlos J Cela

20130041449, Feb 14, 2013

Apr 5, 2012

13/440925

Carlos J. Cela - Salt Lake City UT, US
Gianluca Lazzi - Salt Lake City UT, US

University of Utah Research Foundation - Salt Lake City UT

A61N 1/372

607148

The present embodiments are directed to implantable electrode arrays having virtual electrodes. The virtual electrodes may improve the resolution of the implantable electrode array without the burden of corresponding complexity of electronic circuitry and wiring. In a particular embodiment, a virtual electrode may include one or more passive elements to help steer current to a specific location between the active electrodes. For example, a passive element may be a metalized layer on a substrate that is adjacent to, but not directly connected to an active electrode. In certain embodiments, an active electrode may be directly coupled to a power source via a conductive connection. Beneficially, the passive elements may help to increase the overall resolution of the implantable array by providing additional stimulation points without requiring additional wiring or driver circuitry for the passive elements.

20200120075, Apr 16, 2020

Dec 10, 2019

16/708875

- Redmond WA, US
Carlos Jose Cela - Seattle WA, US

H04L 29/06
H04L 9/32
H04L 29/08
H04L 9/08
G06F 21/72

Computing systems, devices, and associated methods of managing secure communication using hardware accelerators are disclosed herein. In one embodiment, a method includes receiving a data request from a user kernel requesting to read a message stored in a buffer. In response to receiving the data request, transmitting to a processor, data representing a request to validate content in the message. The method also includes receiving from the processor, data representing a validation result containing an indication whether the content in the message is valid and a header size of the message. When the indication indicates that the content of the message is valid, a header of the message is removed from the message according to the header size in the validation result to extract the payload and providing the extracted payload to the user kernel.

20190251266, Aug 15, 2019

Dec 28, 2018

16/235771

- Redmond WA, US
Carlos Jose CELA - Seattle WA, US
Ho-Yuen CHAU - Bellevue WA, US
Melur K. RAGHURAMAN - Sammamish WA, US
Saurabh M. KULKARNI - Redmond WA, US
Yimin DENG - Redmond WA, US

Microsoft Technology Licensing, LLC - Redmond WA

G06F 21/57
G06F 9/4401
G06F 21/55

A bare metal resource includes a trusted portion and an untrusted portion. The trusted portion includes trusted hardware, an image repository, and a clearance manager. The clearance manager is executable during bootup of the bare metal resource to perform a clearance process on the untrusted portion, including deleting the BIOS in the untrusted portion and loading a trusted BIOS from the image repository on the untrusted hardware, to place the untrusted portion in a trusted state. The bare metal resource may be provisioned to a tenant of a cloud provider after being placed in the trusted state.

20180278583, Sep 27, 2018

Jun 26, 2017

15/632865

- Redmond WA, US
Carlos Jose Cela - Seattle WA, US

H04L 29/06

Computing systems, devices, and associated methods of managing secure communication using hardware accelerators are disclosed herein. In one embodiment, a method includes receiving a data request from a user kernel requesting to read a message stored in a buffer. In response to receiving the data request, transmitting to a processor, data representing a request to validate content in the message. The method also includes receiving from the processor, data representing a validation result containing an indication whether the content in the message is valid and a header size of the message. When the indication indicates that the content of the message is valid, a header of the message is removed from the message according to the header size in the validation result to extract the payload and providing the extracted payload to the user kernel.