Disruptive Force LLC

Olympus Scientific Solutions Americas Corp.

Medici Technologies LLC

Tascent, Inc.

Other

Penumbra, Inc.

Openpath Security Inc.

Empatica Srl

Disruptive Force Llc, Campbell, Ca

Cole Derby

Daniel Harden

Daniel K Harden

Nicholas Philip Sands

Michael C Makay

Krista S Jacobsen

Akifusa Nakazawa

Britt Jensen

Justin Andrews

Dan Harden

Mark Ries Robinson

Elena Adelle Allen

Joseph Justin Pritikin

William Homer Chandler, Jr

Dean Eugene Senner

Haiping Liao

Jeffrey W Douglass

Azeddine Choumach

Elliot L Ortiz

Stephen Joseph Pons

Robert Angelo Riccomini

Justin L Andrews

Daniel Cheung

Robyn Shaffer

Kyle West

Alex Rabkin

Parth Jariwala

Sharice Quan Handa

Matteo Lai

Chris Loughnane

A system may include an exercise device and an external device. The exercise device may include a rigid rod, a plurality of light sources, at least one load sensor for detecting an applied longitudinal force, and a first processor coupled to the at least one load sensor and to the plurality of light sources and configured to obtain a signal indicating a magnitude of the applied longitudinal force, and cause a subset of the plurality of light sources to emit light. The external device may comprise a communication interface, a display, and a second processor coupled to the communication interface and to the display and configured to establish a communication link with the exercise device using the communication interface, obtain data over the communication link, and cause the display to present information associated with the exercise device.

Data-collecting exercise device

The present invention provides methods and systems that provide for reliable, convenient, and noninvasive assessment of hydration status. The methods and apparatuses can use the temporal sequence of the aortic value opening and closing along with the user's body position to derive parameters that determine the hydration status of the user. The user can use this information to make near-term lifestyle changes that can improve physical performance, health, and general wellbeing.

Hydration assessment system

An exercise device comprises a rigid rod having a first and second ends, a plurality of light sources arranged in a row along at least a portion of an axis extending between the first and second ends of the rigid rod, at least one load sensor for detecting an applied longitudinal force, and a processor coupled to the at least one load sensor and to the plurality of light sources. The processor is configured to execute machine-executable instructions that cause the processor to obtain a signal indicating a magnitude of the applied longitudinal force, and cause a subset of the plurality of light sources to emit light. A ratio of a number of light sources in the subset to a total number of the plurality of light sources represents the magnitude of the applied longitudinal force relative to a reference longitudinal force.

A system for connection to a catheter to aspirate clot from the vasculature of a patient includes a vacuum console and a canister assembly which can be removably mounted in a mounting region of the vacuum console. The canister assembly includes a clear canister with an interior and an open top. A lid is removably attachable over the open top of the clear canister, and the clear canister has a vacuum port and a pressure sensing port each formed in a wall of the canister. The vacuum port aligns with a vacuum connector on the enclosure and the pressure sensing port aligns with a pressure sensing connector on the enclosure when the canister assembly is mounted on the mounting region of the vacuum console. The clear canister has a filter plate configured to be suspended in the interior of the clear canister at a location mid-way between the open top and a bottom to separate clot from blood as they are aspirated from the catheter.

Apparatus and methods for clot aspiration

Wearable biosensing device

Iris recognition device

Access control reader

An exercise device comprising a rigid rod, a base, at least one load sensor inside the base or the rigid rod, the at least one load sensor for detecting a longitudinal force applied to the exercise device, and a processor coupled to the at least one load sensor, the processor for executing one or more machine-executable instructions that, when executed by the processor, cause the processor to cause at least one of the plurality of light sources to emit light to instruct a user to apply a target longitudinal force to the exercise device, obtain a signal indicating a magnitude of the applied longitudinal force, and control at least one characteristic of at least a subset of the plurality of light sources to provide an indication of the magnitude of the applied longitudinal force relative to the magnitude of the target longitudinal force.

Growing community of inventors

East Palo Alto, CA, United States of America

Cole Derby