Imagine Tf, LLC

Other

Morpheus Lights, Inc.

Rambus Delaware LLC

Rambus International Ltd.

Rambus Inc.

Chowbotics

Casabots Inc.

Tea Spot, Inc.

Richardson, Brian E.

Brian Edward Richardson

John R Richardson

Deepak Chandra Sekar

Kathirgugan Kathirasen

Sanath Bhat

Charles Richard Lewis, Jr

Timothy A McCollum

Ian Hardcastle

Fumitomo Hide

Alexey Titov

Levi Lalla

Victoria Reidling

Maria Uspenski

Pete E Pappanastos

Kenneth Haven

Daniel Blaugrund

Karen A Des Jardins

Devices for the separation of components within a fluid are disclosed herein. The device includes a housing that contains a roll of film with spaced apart microstructures thereon to crate channels to direct fluid flow. The channels have functionalized surfaces to attract and retain desired components in the fluid so that those components can be separated from the fluid. The film roll is typically contained by an outer sleeve around its perimeter to contain the fluid therein. The device also includes a central hub on which the film roll is mounted.

Rolled film with structures for fluid separation

Devices for the separation of components within a fluid are disclosed herein. The device typically includes layers of spacers and separation surfaces. The separation panels have channels with functionalized surfaces to attract and retain components within the fluid. The separation panels include a border (housing) to constrain the fluid.

Layered structures with spacers and channels for separation

A method for operating an automated food making apparatus having a motor, actuator arm, and an apparatus. The apparatus may be a paddle with flexible fins. The method rotates the paddle with a pin-shaft mechanism to dispense an ingredient placed in a canister, controls the motor automatically based on weight sensor readings, and locates a position of the actuator arm with position sensors. The same motor dispenses ingredients from a plurality of canisters. The method may have a plurality of paddle rotation and weight measurement steps until a target weight is reached. The plurality of paddle rotation steps may be unidirectional or bidirectional paddle rotation. The paddle may be rotated according to one or more paddle rotation algorithms, an error recovery algorithm, or different algorithms based on the amounts of ingredients remaining in the canister. The paddle may be rocked until the target weight is achieved.

Enhanced automated food making apparatus

Absorbent microstructure panels are described herein. An example filter device includes a plurality of microstructure panels each having a front surface and a back surface, and a plurality of capillary ridges protruding from the front surface. The plurality of capillary ridges are each spaced apart from one another. The plurality of microstructure panels form an absorbent microstructure array by layering the plurality of microstructure panels together such that the plurality of capillary ridges of one microstructure panel contacts the back surface of an adjacent microstructure panel to create capillary tubes that draw fluid into the absorbent microstructure array.

Absorbent microstructure arrays and methods of use

Various structures for catalytic convertors are disclosed herein. The device includes an outer housing enclosing a catalytic core. The catalytic core can be formed in a myriad of ways. Flow paths through the core are constructed so that they are not straight-line paths from the inlet of the device to the outlet of the device. Pleated conformations and stacked core arrays are described that maximize the catalytic surface area in a given volume of housing. The application of the core to exhaust from diesel engines is also disclosed.

Structures for catalytic converters

A layered porous film with a fluidic path through orthogonally oriented ribbed layers of varying size and spacing for the filtering or separation of particles or compounds. Any number of additional layers and materials may be added to modify the flow characteristics through the film.

Porous layered film

Microstructure separation filters are provided herein, as well as chromatography and other separation devices. An exemplary filter device includes a microstructure filter has a plurality of layers of alternating sacrificial and/or structural material which have been etched to create inlet channels and outlet channels. Adjacent ones of the inlet channels and the outlet channels are spaced apart from one another by cross channels that filter a fluid from the inlet channels to the outlet channels. The cross channels include filter features formed by etching away of a portion of the layers. The device also includes a housing configured to receive the microstructure filter.

Microstructure separation filters

This disclosure relates a fluid filter whose pores are created by raised structures on a base. The raised structures may be macro, micro and/or nanometer scale structures. The structures can be configured in myriad ways to control flow rate and extracted particle size of a filtering system. Typically a plurality of filter panels will be stacked to form a filtering unit.

Filter panel with macro, micro and nano structures

An automated food making apparatus is described. An automated food making apparatus can include: a carousel; a dispensing apparatus shared among a plurality of canisters on the carousel, wherein at least one canister includes a paddle; and wherein the dispensing apparatus is configured to rotate the canister's paddle to dispense ingredients stored in the canister. A dispensing mechanism for an automated food making apparatus can include: an actuator arm; a motor that is adapted to rotate the actuator arm; one or more magnets embedded in the actuator arm; and one or more sensors configured to detect position of the actuator arm; wherein the actuator arm dispenses ingredients by rotating a pin located on a canister.

Automated food making apparatus

Various structures for catalytic convertors are disclosed herein. The device includes an outer housing enclosing a catalytic core. The catalytic core can be formed in a myriad of ways. Flow paths through the core are constructed so that they are not straight-line paths from the inlet of the device to the outlet of the device. Zigzag conformations and stacked panel arrays are described that maximize the catalytic surface area in a given volume of housing.

Three dimensional filter devices and devices are provided herein. An example substrate includes a primary inlet boundary and a primary outlet boundary, as well as a plurality of filter rows that include microstructure filter members that remove particulate matter from a fluid flowing across or through the substrate; the fluid entering through the inlet boundary and exiting through the outlet boundary. Each of the microstructure filter members includes a secondary inlet channel and a secondary outlet channel that couple to adjacent microstructure filter members.

Three dimensional filter devices and apparatuses

Micro-channel fluid filters and methods of use are provided herein. In one embodiment a fluid film may include a plurality of dividing walls extending from an upper surface of a film, the plurality of dividing walls forming a plurality of tapered inlet channels, a plurality of cross channels formed along a length of each of the plurality of dividing walls, an inlet channel for each of the plurality of tapered inlet channels, and an outlet channel for each of the plurality of tapered inlet channels.

Micro-channel fluid filters and methods of use

Multiple staged filters are provided herein. A filter may include a plurality of panels that each include a filtering front surface and a flat back surface, the filtering front surface having a first row of vertically extending protrusions spaced apart from one another to form vertical channels, a second row of vertically extending protrusions spaced apart from one another to form vertical channels, and one or more rows of filtering protrusions, where the one or more rows are vertically spaced apart from one another and extending between the first and second rows of vertically extending protrusions. Further, each row of filtering protrusions may include filtering protrusions that are spaced from one another to form filter channels having a size that is configured to receive and retain objects of a given size.

Fluid filters and methods of use

Microstructure flow mixing devices are disclosed herein. An example device a first panel, a first plurality of raised features extending from a first surface of the first panel, a second plurality of raised features extending from the first surface of the first panel and a plurality of divider microstructures extending from the first surface of the first panel in line with and in between the first plurality of raised features and the second plurality of raised features. At least a portion of adjacent divider microstructures are spaced apart to form feed pathways or cross channels.

Microstructure flow mixing devices

Three dimensional nanoparticle filters are provided herein. In one embodiment a filter device includes a base material, alternating layers of sacrificial material between layers of structural material being deposited onto the base material to create a layered base material, and filter sidewalls etched into the deposited alternating layers of the layered base material to remove the layers of sacrificial material between the layers of structural material to form filter slots in the filter sidewalls as well as create channels between the filter sidewalls, where a size of the filter slots is selectable based on a thickness of the layers of sacrificial material utilized.

Growing community of inventors

Morgan Hill, CA, United States of America

Brian Edward Richardson