Eric Sjl Bennett

8615822, Dec 31, 2013

Jan 5, 2010

12/652586

Matt Vargas - San Jose CA, US
Brian Lamb - Belmont CA, US
Tom Stout - San Jose CA, US
Eric Bennett - San Francisco CA, US
Tuan Le - Diamond Bar CA, US

Fluidmaster, Inc. - San Juan Capistrano CA

E03D 1/24

4329, 4324, 4362

An air activated toilet flush system, including: a toilet bowl; a reservoir; a fluid conduit between the reservoir and the toilet bowl; a system for supplying water into the reservoir; and a system for supplying air into the reservoir, wherein a supply of air into the reservoir causes fluid to flow from the reservoir through the fluid conduit and into the toilet bowl.

20110238147, Sep 29, 2011

Sep 22, 2010

12/888137

Eric Bennett - San Francisco CA, US
Erin Vitus - East Palo Alto CA, US
Matt Vargas - San Jose CA, US
Arani Bose - New York NY, US
Stephen Pons - San Francisco CA, US
Ben Tompkins - Danville CA, US
David Barry - Livermore CA, US

Penumbra, Inc. - Alameda CA

A61F 2/84

623 111

A system for mechanically deploying intraluminal implants is disclosed. The system is used with an implant that is delivered and/or deployed via a pull wire and includes a handle having a funnel and receiving channel for receiving the pull wire, a slider having a thumb grip and a wedge, and a shuttle having a grabber for grasping the pull wire. The thumb grip is pulled proximally to retract the wedge to cause the grabber to grasp the wire and retract the shuttle but not the wire. An extension spring linked between the slider and the shuttle abruptly pulls the shuttle to retract the pull wire after the slider is fully retracted.

20200406542, Dec 31, 2020

Sep 7, 2020

17/013784

- Oakland CA, US
Eric Bennett - Oakland CA, US

FRONTIER BIO CORPORATION - 8000 Edgewater Dr, Ste 200 CA

B29C 64/209
B29C 64/245
B29C 64/165
B29C 64/188
B29C 64/343
B29C 64/35
B29C 64/393
B29C 64/236

According to an embodiment of the disclosure, a device with the capability of performing both conventional bioprinting and electrohydrodynamic printing (EHDP) is provided. The disclosure also provides methods of using the described device, methods of optimization of printing parameters, methods of position calibration, methods of selecting or creating voltage waveforms, and other methods relating to the fabrication device.

20200102235, Apr 2, 2020

Sep 28, 2018

16/146265

- Coatesville PA, US
Eric R. Bennett - West Chester PA, US

C02F 3/00

A concentration of dissolved oxygen (DO) can be controlled in accordance with a non-linear approach rate. Further, a target rate of approach can be controlled over time as the setpoint of a controller, such that the controller determines an actual rate of approach, and controls oxygen delivery based on the difference between the actual rate of approach and the target rate of approach using self-tuning mechanisms to improve control response quality.

20200078527, Mar 12, 2020

Sep 3, 2019

16/559337

- South San Francisco CA, US
Louis Jung - Foster City CA, US
Sean Frick - San Francisco CA, US
Benjamin Collins - San Francisco CA, US
Eric Bennett - Foster City CA, US

A61M 5/315

A dosage measurement system is adapted to receive a motion from a dosage injection mechanism disposed within a drug injection pen. The dosage measurement system includes a substrate, a sensing capacitor disposed on the substrate, and a lifting tab. The sensing capacitor includes a dielectric layer disposed between a base plate and an adjustable plate. The lifting tab is attached to the adjustable plate and positioned to engage an undulation pattern disposed on a component attached to the dosage injection mechanism. The lifting tab is adapted to physically change a separation distance between the adjustable plate and the base plate in a reciprocal manner in response to the motion of the dosage injection mechanism and engagement with the undulation pattern. A capacitance of the sensing capacitor changes in response to the engagement of the lifting tab with the undulation pattern and the motion of the dosage injection mechanism.

20180084680, Mar 22, 2018

Sep 21, 2017

15/712069

- Cupertino CA, US
David A. PAKULA - San Francisco CA, US
David J. DUNSMOOR - San Jose CA, US
Ian A. SPRAGGS - San Francisco CA, US
Lee E. HOOTON - Ridge NY, US
Marwan RAMMAH - San Francisco CA, US
Matthew D. HILL - Santa Clara CA, US
Robert F. MEYER - Palo Alto CA, US
James A. BERTIN - San Jose CA, US
Eric M. BENNETT - Foster City CA, US
Simon C. HELMORE - San Francisco CA, US
Melissa A. WAH - San Jose CA, US
Jon F. HOUSOUR - Sunnyvale CA, US
Douglas G. FOURNIER - San Jose CA, US
Christopher S. TOMASETTA - Sunnyvale CA, US

H05K 7/20

A thermal distribution assembly for an electronic device is disclosed. The electronic device includes an enclosure defined by a metal band and a non-metal bottom wall formed by glass, sapphire, or plastic. In this regard, the enclosure may include a relatively low thermal conductivity. However, the thermal distribution assembly provides heat transfer capabilities that offset thermal conductivity losses by using a non-metal bottom wall, and also provides added structural support. The thermal distribution assembly may include a first layer, a second layer, and a third layer. The first and third layers provide structural support, while the second layer provides a relatively high thermally conductive layer. The thermal distribution assembly includes sidewalls engaging and thermally coupling to the metal band, allowing the thermal distribution assembly to draw heat from a heat-generating component, and pass the heat to the metal band while minimizing or preventing temperature increases along the non-metal bottom wall.