U-systems, Inc.

Apple Inc.

Agilent Technologies, Inc.

Tor Collins Anderson

Shih-Ping Wang

Jiayu Chen

Douglas G Summers

Tetsuya Ishikawa

Bernd J Neudecker

Shawn W Snyder

Wei Zhang

Stuart Carl Hansen

Thomas Neff

Zengpin Yu

Tommy Earl Cupples

Michael E Reed

Douglas J King

Jeanine M Rader

Jiaya Chen

Shawn William Snyder

Bernd Jurgen Neudecker

Solid-state battery structures and methods of manufacturing solid-state batteries are disclosed. More particularly, embodiments relate to solid-state batteries having one or more subdivided electrode layers. Other embodiments are also described and claimed.

Devices and methods for reducing battery defects

An apparatus and related methods for ultrasonically scanning a tissue sample are described, the apparatus comprising an ultrasound transducer and a membranous sheet, the membranous sheet compressing the tissue sample, the ultrasound transducer contacting the membranous sheet and ultrasonically scanning the tissue sample therethrough, wherein the membranous sheet has a generally arcuate shape and the ultrasound transducer is movable in a generally arcuate trajectory therealong during the ultrasonic scan. Also described is an apparatus for facilitating a medical procedure, comprising a membranous sheet compressing a tissue sample, an ultrasound transducer contacting the membranous sheet to ultrasonically scan the tissue sample therethrough, and a biopsy guide operably coupled to the ultrasound transducer for maintaining a biopsy instrument in a scan plane of the ultrasound transducer to facilitate a percutaneous biopsy of a lesion located in the scan plane.

Ultrasound scanning and ultrasound-assisted biopsy

Versatile ultrasound scanning of a breast is described using an apparatus () including a hand-manipulable compression/scanning assembly (). The compression/scanning assembly () comprises an ultrasound transducer () and a compressive member comprising an at least partially conformable membrane () in a substantially taut state, the membrane () having a first surface compressing the breast in a generally chestward direction and a second surface opposite the first surface. The compression/scanning assembly () further comprises a transducer translation mechanism coupled to the ultrasound transducer () and configured to sweep the ultrasound transducer across the second surface of the membrane to scan the breast while compressed in the generally chestward direction. Systemized and/or standardized ultrasonic scanning of a breast based on hand-manipulable scanners () having substantially planar scanning surfaces is also described.

Versatile breast ultrasound scanning

Automated ultrasonic scanning of a chestwardly compressed breast of a supine patient uses a scanning assembly that moves down to compress the breast through a membrane that is secured to the assembly across a bottom opening. A motorized ultrasound transducer moves across the breast while the breast remains downwardly compressed against the patient's chest, sending and receiving ultrasound energy through the membrane. The membrane is porous with respect to an acoustic coupling liquid that impregnates it. The transducer outputs ultrasound information that is processed to form initial planar images and then reconstructed slice images of breast tissue.

Compressive surfaces for ultrasonic scanning

Navigation among breast ultrasound volumes derived from different volumetric ultrasonic scans of a same breast is described. On a display of a breast ultrasound workstation, a first image derived from a first ultrasonic volume is displayed. A user election of a source region of interest (ROI) in the first image is received. A destination ROI within a second ultrasonic volume is identified that at least roughly corresponds to a same locality of tissue in the breast as the source ROI. A second image derived from the second ultrasonic volume and including the destination ROI is displayed, the destination ROI being highlighted.

Breast ultrasound examination including scanning through chestwardly compressing membrane and processing and displaying acquired ultrasound image information

Compressive surfaces for ultrasonic tissue scanning

An apparatus and related methods for ultrasonically scanning a tissue volume are described, the apparatus being particularly advantageous in the context of freehand ultrasound assisted biopsy of the breast although readily applied to non-biopsy contexts and other body parts. The apparatus comprises a casing configured and dimensioned for single-handed manipulation relative to a surface of the tissue, and a texturably couplant-porous material sheet extending across an opening of the casing. The texturably couplant-porous material sheet has an outer side and an inner side relative to the casing, the outer side for compressively contacting the tissue surface. The apparatus further comprises an ultrasound transducer positioned against the inner side of the texturably couplant-porous material sheet and being mechanically translatable thereacross for volumetrically scanning the tissue volume therethrough.

Handheld volumetric ultrasound scanning device

An apparatus and related methods for ultrasonically scanning a tissue sample are described, the apparatus comprising an ultrasound transducer and a taut fabric sheet compressing the tissue sample, the ultrasound transducer contacting the taut fabric sheet and ultrasonically scanning the tissue sample therethrough. Preferably, the taut fabric sheet is substantially porous with respect to an acoustic couplant. In another embodiment, an ultrasound transducer and a vented membrane are provided, the vented membrane having a first surface contacting the tissue surface and a second surface opposite the first surface, the ultrasound transducer contacting the second surface and being translated across the second surface for ultrasonically scanning the tissue volume. An acoustic couplant is applied to one of the tissue surface, the first surface, and the second surface, the vented membrane being provided with a void pattern such that it is substantially porous with respect to the acoustic coupling agent.

Compressive surfaces for ultrasonic scanning and associated method

Apparatus and methods are disclosed for aligning components of an ion optics system particularly as applied to mass spectroscopy apparatus. An apparatus comprises a base having a front face, a rear face and at least one side face, and at least two supports. Each of the supports has at least one face. Each of the supports is affixed to the base by alignment of a portion of at least one face of the base and a portion of at least one face of the support thereby resulting in the alignment of the supports relative to one another. At least one of the supports has attached thereto a component of an ion optics system for a mass spectrometer. In a mass spectroscopy apparatus the support mating faces and the base mating faces are configured and dimensioned such that, when the support mating faces are brought together in registration with the respective base mating faces, the components are optically aligned within acceptable tolerances. Also disclosed are apparatus for making electrical in high vacuum environments. An apparatus has at least one groove therein. An electrical lead is sequestered in the groove and the apparatus further comprises a shielding plate covering the groove.

Growing community of inventors

Los Gatos, CA, United States of America

Tor Collins Anderson