Apple Inc.

Black Diamond Equipment, Ltd. Inc.

Other

Black Diamond Equipmnt Ltd.

Joseph Benjamin Walker

Daniel D Sunshine

Yohji Hamada

Daniel A Podhajny

James Thomas Grutta

Nathan Miles Kuder

Kathryn P Crews

Robert John Horacek

David Kuhlmann Blackwell

Peter Thomas Gompert

Derick J Noffsinger

Benjamin M Rappoport

John J Baker

Peter F Coxeter

David M Kindlon

Jacob Randy Hall

Bill Belcourt

Jeremy A Steck

Kent Lansing Dodge

Derick J Neffsinger

Samuel Goodrich Lacey

Storrs Townsend Hoen

Christopher Schultz

Kathleen A Bergeron

John Schooley Camp

Benjamin J Grena

Steven J Keating

Andrew L Rosenberg

Siddhartha Hegde

Seul Bi Kim

Rimple Bhatia

William Leith

Didio V Gomes

Jessica J Lu

Donald L Olmstead

Camille I Henrot

Lia Mieko Uesato

Michael Baumann

Franck Robin

Felix Binder

Pete Gompert

Brenden Perkins

Peter Thomas Gompet

Robert Joan Horacek

Kyle L Chatham

Bertram Wendisch

Srinivasan Venkatraman

Martin Latta

Ulrich Schläpfer

Helen Wächter Fischer

David Kuhlman Blackwell

Breandan Perkins

Bands for electronic devices, including wearable devices, are designed to dynamically alter their shape (e.g., lengthen) in response to an external force. A band may include one or more interior structures disposed in an exterior structure. The interior structure(s) is/are pulled in tension by the exterior structure. When the interior structure(s) is/are pulled in tension, an additional force (e.g., by a user) that applies tension to the interior structure(s) may cause a relatively small change in tension to the interior structure(s). As a result, the band may appear to provide the same amount to users, despite users having a different wrist size/diameter. A similar phenomenon may occur to a single user when the user's wrist changes in size. Accordingly, based on the interior structure(s) being placed in tension by the exterior structure(s), the force provided by the band may appear constant to users.

Dynamically adjustable bands for wearable devices

Electronic equipment may include structured fabric. Structured fabric may be used as a protective case or cosmetic cover for an electronic device, may be used to form a band that holds an electronic device against a user's body, or may be used to cover one or more openings in an electronic device. Structured fabrics may be soft and pliable while maintaining the ability to hold a given shape without added support. Structured fabric may be formed by laminating fabric such as warp-knit fabric with a stiffener such as polymer film. Structured fabrics may include openings through which signals such as optical or audio signals pass. To maintain the geometry and shape of the openings in the structured fabric without covering the openings, the stiffener and adhesive that are attached to the fabric may be cut to form a pattern of openings that align with the openings in the fabric.

Structured fabrics for electronic devices

Interlacing equipment may be used to form fabric and to create a gap in the fabric. The fabric may include one or more conductive strands. An insertion tool may be used to align an electrical component with the conductive strands during interlacing operations. A soldering tool may be used to remove insulation from the conductive strands to expose conductive segments on the conductive strands. The soldering tool may be used to solder the conductive segments to the electrical component. The solder connections may be located in grooves in the electrical component. An encapsulation tool may dispense encapsulation material in the grooves to encapsulate the solder connections. After the electrical component is electrically connected to the conductive strands, the insertion tool may position and release the electrical component in the gap. A component retention tool may temporarily be used to retain the electrical component in the gap as interlacing operations continue.

Fabric with electrical components

A fabric strap may be configured to attach an electronic device to a user's body. Some of the strands in the fabric strap may be stretchable strands. A stretchable strand may include an elastic core covered by one or more layers of material. The elastic core may be formed from a single elastic strand or may be formed from multiple elastic strands. The first layer of material on the elastic core may be a strand that is twisted around the elastic core. The second layer of material on the elastic core may be a strand that is braided around the first layer of material and the elastic core. The first layer may have a thickness that is greater than that of the elastic core and the second layer of material. The first and second layers of material may be formed from non-stretchable or stretchable materials.

Stretchable strands for fabric items

Weaving equipment may include strand positioning equipment that positions warp strands and that inserts weft strands among the warp strands to form fabric. The weaving equipment may include one or more guide arms that pushes warp strands in the weft direction during weaving. Fabrics having warp strands that extend in both the warp direction and the weft direction may be used in forming circuitry in fabrics such as touch sensor circuitry. For example, a touch sensor in a fabric may be formed using first conductive warp strands that form first touch sensor electrodes and second conductive warp strands that form second touch sensor electrodes that overlap with the first touch sensor electrodes. The second conductive warp strands may each have a first portion that extends in the warp direction and a second portion that extends in the weft direction across the first touch sensor electrodes.

Conductive signal paths in woven fabrics

An item may include fabric or other materials formed from intertwined strands of material. The item may include circuitry that produces signals. The strands of material may include non-conductive strands and conductive strands. The conductive strands may carry the signals produced by the circuitry. Each conductive strand may have a strand core, a conductive coating on the strand core, and an insulating layer on the conductive coating. The strand cores may be strands formed from polymer. The conductive coating may be formed from metal. Electrical connections may be made between intertwined conductive strands by selectively removing portions of the outer insulating layer to expose the conductive cores of overlapping conductive strands. A conductive material such as solder or conductive epoxy may be applied to the exposed portions of the conductive cores to electrically and mechanically connect the overlapping conductive strands.

Forming electrical connections in fabric-based items

An item may include fabric or other materials formed from intertwined strands of material. The strands of material may include non-conductive strands and conductive strands. The strands may be intertwined by a warp knitting machine to produce a warp knit fabric. The warp knit fabric may include intertwined warp strands and weft insertion strands that are inserted amongst the warp strands. The weft insertion strands may extend across less than all of the warp strands. The weft insertion strands may include parallel segments that each extend across a different portion of the warp strands. The segments of weft insertion strands may have different widths relative to one another and relative to the width of the fabric. The weft insertion strands may be inserted into the warp knitting machine across the warp strands using a weft insertion device that is positioned by a computer-controlled positioner.

Warp knit fabrics with variable path weft strands

An item may include circuitry, a battery that powers the circuitry, and one or more photovoltaic cells that are used to recharge the battery. The photovoltaic cell may be a thin-film photovoltaic cell with a flexible substrate. The flexible substrate may be formed from fabric, leather, polymer, or other soft materials. In arrangements where the substrate is formed from fabric with conductive strands, the photovoltaic cell may include a first electrical terminal coupled to a first conductive strand and a second electrical terminal coupled to a second conductive strand. The first and second conductive strands may be coupled to control circuitry. The control circuitry may route the electricity from the photovoltaic cell to a battery or other circuitry. Items such as cases, covers, bands, headphones, interiors, and other items may have flexible or soft surfaces that can form substrates for photovoltaic films.

Systems with photovoltaic cells

A fabric-based item may have fabric with conductive strands of material. The conductive strands of material may include conductive yarn formed from insulating fibers and conductive fibers. The conductive fibers may be metal wires. The insulating fibers in the conductive yarn may hide the conductive fibers from view. The fabric may be woven fabric or other fabric with intertwined strands of material. The woven fabric may include conductive and insulating warp yarns and conductive and insulating weft yarns. Conductive yarn may be coupled to capacitive touch sensor circuitry and may form a capacitive touch sensor grid or other capacitive touch sensor electrode structures. Conductive yarn may also be soldered or otherwise coupled to electrical components.

Items with conductive yarn

One embodiment of the present invention relates to an avalanche safety system including an inflatable chamber, activation system, inflation system, harness, and a container. The inflatable chamber is a three-dimensionally, partially enclosed region having an inflated state and a compressed state. The inflated state may form a particular three dimensional shape configured to protect the use from impact and/or provide flotation during an avalanche. The inflation system is configured to transmit ambient air into the inflatable chamber. The harness may be a backpack that enables a user to transport the system while engaging in activities that may be exposed to avalanche risk. The container is releasably coupled to the harness including a coupled and a separate state. The container independently includes a container chamber that is selectively enclosable by a container opening. The releasable coupling between the container and the harness may include a periphery zipper type coupling.

Systems and methods for modular inflatable avalanche protection

One embodiment of the present invention relates to an active camming device including a head member, a set of cam lobes, a connection system, and a retraction system. The cam lobes are configured to rotate between a retracted state and a spring biased extended state. The connection system includes a lengthwise cable coupled to the terminal. The retraction system is uniquely configured to enable selective engagement of the retracted state of the cam lobes with respect to the cam head. The retraction system includes slidably externally coupling a trigger and retraction sleeve to the cam lobes over the cable. A set of independent sleeves are also slidably coupled to the cable over the retraction sleeve between the trigger and cam lobes. The independent sleeves may be conically shaped and oriented to adjacently internest with one another so as to protect the retraction sleeve during operation of the refraction system.

Camming device stem

One embodiment of the present invention relates to an avalanche safety system including an inflatable chamber, activation system, inflation system, and a harness. The inflatable chamber is a three-dimensionally, partially enclosed region having an inflated state and a compressed state. The inflated state may form a particular three dimensional shape configured to protect the user from burial and provide flotation during an avalanche. The activation system is configured to receive a user-triggered action to activate the system. The inflation system may include an air intake, battery, fan, and internal airway channel. The inflation system is configured to transmit ambient air into the inflatable chamber. The harness may be a backpack that enables a user to transport the system while engaging in activities that may be exposed to avalanche risk. The harness may include hip straps, shoulder straps, internal compartments, etc.

Systems and methods for inflatable avalanche protection

Growing community of inventors

Campbell, CA, United States of America

Joseph Benjamin Walker