AtlasBar-Ilan Research Atlas

optics, nanophotonics, biomedical imaging and fiber sensing

Zeev Zalevsky

זאב זלבסקי

Identity: verified

The Bar-Ilan profile and university-hosted CV identify Zeev Zalevsky and match the Hebrew roster name. [116][117]

Documented foundation

Research & experience

Bar-Ilan professor and university vice president whose profile spans super-resolution, biomedical optics, nanophotonics and fiber-based sensing.[116][117]

super-resolution imagingbiomedical opticsnanophotonicsoptical fiber sensing

CV and official profile

A detailed 100-page academic CV dated 2023 was inspected.[117]

Open CV

Selected work

Representative records, not a complete publication list. Metadata confirms attribution; it does not independently replicate a result.

2025 · paper

Non-contact optical sensing of vocal fold paralysis using speckle pattern analysis

The dedicated institutional record attributes this peer-reviewed biomedical-optics study to Zalevsky and coauthors and describes a ten-subject feasibility assessment; it does not establish broader clinical performance.[138]

Patent evidence

83 catalogued patent records · 16 identified families · family unassigned for 67 records

Coverage: Partial inventor search

Bounded inventor search across affiliations: 83 additional catalogued rows, comprising 16 inspected patent publications and 67 author-reported CV entries whose patent publications were not individually inspected. US9636041B2 and US10398314B2 are explicitly linked parent and continuation publications with different Google family IDs; separate publication rows do not establish separate inventions. Coverage remains partial across name variants, jurisdictions and publication dates, and does not include unpublished applications.

Optical lens with halo reduction

US12547018B2 · Published 2026-02-10

Published patent document inspected

Publication assignee: Brien Holden Vision Institute Ltd

First-party CV page 94, Issued Patents item 60, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10656437, US11366337. The linked representative patent was also inspected; its original-assignee and publication-date fields are recorded. Record family information supports the grouped variants. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[305][401]

Method and system for super-resolved imaging

US12536611B2 · Published 2026-01-27

Published patent document inspected

Publication assignee: Bar Ilan University

The inspected patent lists Zeev Zalevsky as inventor; exact name, optics topic and co-inventor/assignee context align with his first-party CV. Original assignee is recorded, not a conclusion about current legal ownership.[304]

High resolution imaging behind scattering medium

US12519918B2 · Published 2026-01-06

Published patent document inspected

Publication assignee: Bar Ilan University

The inspected patent lists Zeev Zalevsky as inventor; exact name, optics topic and co-inventor/assignee context align with his first-party CV. Original assignee is recorded, not a conclusion about current legal ownership.[303]

Optical apparatus with structure for liquid invariant performance

US12313916B2 · Published 2025-05-27

Published patent document inspected

Publication assignee: Brien Holden Vision Institute Ltd

First-party CV page 92, Issued Patents item 25, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8169716, US10031334, US11079517. The linked representative patent was also inspected; its original-assignee and publication-date fields are recorded. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[301][366]

Show 78 moreShow fewer patent records

Wavelength multiplexing processor

US11838104B2 · Published 2023-12-05

Published patent document inspected

Publication assignee: Cognifiber Ltd

The inspected patent lists Zeev Zalevsky as inventor; exact name, optics topic and co-inventor/assignee context align with his first-party CV. Original assignee is recorded, not a conclusion about current legal ownership.[299]

System and method for use in photoplethysmography

US11737677B2 · Published 2023-08-29

Published patent document inspected

Publication assignee: ContinUse Biometrics Ltd

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. No CV entry is asserted for this exact publication; the inspected patent front matter supplies the inventor attribution. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[177]

System and method for improved monitoring of a sample

US11406294B2 · Published 2022-08-09

Published patent document inspected

Publication assignee: ContinUse Biometrics Ltd

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. The unchanged March 2023 CV snapshot, patent entry 74, lists US11406294 and Z. Zalevsky. Its historical author-report claim remains in packet 2; the linked publication is now separately inspected. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[174][415]

System and method for remote monitoring

US20210063563A1 · Published 2021-03-04

Published patent document inspected

Publication assignee: Bar Ilan University

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. No CV entry is asserted for this exact publication; the inspected patent front matter supplies the inventor attribution. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[43]

System and method for monitoring of objects with increased sensitivity

US10856739B2 · Published 2020-12-08

Published patent document inspected

Publication assignee: ContinUse Biometrics Ltd

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. The unchanged March 2023 CV snapshot, patent entry 63, lists US10856739 and Z. Zalevsky. Its historical author-report claim remains in packet 2; the linked publication is now separately inspected. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[168][404]

System and method for use in depth characterization of objects

US10724846B2 · Published 2020-07-28

Published patent document inspected

Publication assignee: ContinUse Biometrics Ltd

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. The unchanged March 2023 CV snapshot, patent entry 61, lists US10724846 and Z. Zalevsky. Its historical author-report claim remains in packet 2; the linked publication is now separately inspected. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[165][402]

Method and system for object reconstruction

US10608002B2 · Published 2020-03-31

Published patent document inspected

Publication assignee: Apple Inc

First-party CV page 93, Issued Patents item 27, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8400494, US9066084, US9437006, US9704249, US10340280, US10608002. The linked representative patent was also inspected; its original-assignee and publication-date fields are recorded. Record family information supports the grouped variants. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[296][368]

System and method for monitoring glucose level

US10595755B2 · Published 2020-03-24

Published patent document inspected

Publication assignee: ContinUse Biometrics Ltd

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. The unchanged March 2023 CV snapshot, patent entry 59, lists US10595755 and Z. Zalevsky. Its historical author-report claim remains in packet 2; the linked publication is now separately inspected. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[164][400]

Method and system for non-invasively monitoring biological or biochemical parameters of individual

US10398314B2 · Published 2019-09-03

Published patent document inspected

Publication assignee: Universitat de Valencia; Bar Ilan University

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. The unchanged March 2023 CV snapshot, patent entry 45, lists US9636041 and US10398314 and Z. Zalevsky. Its historical author-report claim remains in packet 2; the linked publication is now separately inspected. Related Parent Applications explicitly names US9636041B2 as continuation parent. Google Family IDs differ (50027363 versus 83852931); this is a separate publication row, not a claim of a separate invention. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[162][386]

Method and system for non-invasively monitoring biological or biochemical parameters of individual

US9636041B2 · Published 2017-05-02

Published patent document inspected

Publication assignee: Universitat de Valencia; Bar Ilan University

The inspected publication explicitly names Zeev Zalevsky and Nisim Nisan Ozana on the established optical-sensing subject. The unchanged March 2023 CV snapshot, patent entry 45, lists US9636041 and US10398314 and Z. Zalevsky. Its historical author-report claim remains in packet 2; the linked publication is now separately inspected. Google Family ID 83852931 is observed. The separately listed US10398314B2 is its expressly recorded continuation, with different Google Family ID 50027363; separate publication rows do not imply separate inventions. Assignee is observed original-assignee metadata, not a current-ownership conclusion.[206][386]

Zero-order computer generated phase-only holograms

US6166833A · Published 2000-12-26

Published patent document inspected

Publication assignee: Ramot at Tel Aviv University Ltd

First-party CV page 92, Issued Patents item 1, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US6166833. The linked representative patent was also inspected; its original-assignee and publication-date fields are recorded. Record family information supports the grouped variants. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[331][342]

Display backlight

US9958601

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 50, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9958601. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[391]

All-optical silicon-photonic constellation conversion of amplitude-phase modulation formats

US9954620

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 49, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9954620. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[390]

Condition authentication based upon temporal-spatial analysis of vibrational responsivity

US9916433

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 48, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9916433. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[389]

Method and system for non-invasively monitoring biological or biochemical parameters of individual

US9668672

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 47, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9668672, US10390729, US11129544. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[388]

Multicore fiber endoscopes

US9661986

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 46, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9661986. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[387]

Method and system for improving resolution of a spectrometer

US9513225

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 44, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9513225. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[385]

Multi-taper optical coupler

US9477043

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 43, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9477043. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[384]

System and method for imaging with pinhole arrays

US9344700

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 41, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9344700. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[382]

Spectral and temporal stealthy fiber optic communication using sampling and phase encoding detection systems

US9288045

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 40, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9288045. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[381]

Multi-focal lens

US9239471

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 39, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9239471, US10078159. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[380]

Blind sight

US9199081

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 38, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9199081. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[379]

Imaging system with optimized extended depth of focus

US9134543

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 37, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9134543, US10175392, US11199651. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[378]

Pattern generation using a diffraction pattern that is a spatial Fourier transform of a random pattern

US9063283

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 36, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US9063283. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[377]

Imaging with extended depth of focus for use with polychromatic light

US8955968

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 35, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8955968, US9500875. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[376]

Imaging method and system with optimized extended depth of focus

US8913331

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 34, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8913331, US9429768. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[375]

Method and system for providing three-dimensional and range inter-planar estimation

US8908016

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 33, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8908016, US9501833. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[374]

High resolution extended depth of field optical coherence tomography

US8860948

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 32, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8860948. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[373]

Devices and methods for optical signal control

US8792159

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 31, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8792159. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[372]

Motion detection system and method

US8638991

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 30, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8638991. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[371]

Optical mask for all-optical extended depth-of-field for imaging systems under incoherent illumination

US8570655

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 29, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8570655. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[370]

Imaging method and system for imaging with extended depth of focus

US8531783

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 28, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8531783. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[369]

Three-dimensional sensing using speckle patterns

US8390821

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 26, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8390821. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[367]

An optical sub wavelength super resolution imaging system producing nanometric spatial resolution of a scanned subject

US8169695

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 22, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8169695. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[363]

All-optical devices and methods for data processing

US8155484

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 24, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8155484. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[365]

Method and System for Imaging with a Zoom

US8098949

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 23, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8098949. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[364]

Depth-varying light fields for three dimensional sensing

US8050461

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 21, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8050461, US8374397. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[362]

Optical system and method for use in projection systems

US8009358

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 20, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US8009358. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[361]

System and method for imaging with extended depth of focus and incoherent light

US7936522

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 19, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7936522. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[360]

Optical system and method for multi-range and dual-range imaging

US7812295

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 18, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7812295. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[359]

Optical method and system for enhancing image resolution

US7800683

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 17, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7800683. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[358]

All Optical System and Method for Providing Extended Depth of Focus of Imaging

US7777932

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 15, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7777932. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[356]

Electronic device and a method of its fabrication

US7777929

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 16, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7777929. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[357]

Image projecting device and method

US7746559

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 14, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7746559. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[355]

Imaging system and method for providing extended depth of focus, range extraction and super resolved imaging

US7646549

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 13, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7646549, US8040604. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[354]

Range mapping using speckle decorrelation

US7433024

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 12, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7433024. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[353]

Image compression

US7194139

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 9, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7194139. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[350]

All optical extended depth-of field imaging system

US7158317

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 10, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7158317. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[351]

Image Projecting Device and Method

US7128420

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 11, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7128420. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[352]

Optical method and system for extended depth of focus

US7061693

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 8, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7061693, US7365917, US7859769, US8192022. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[349]

Optical processing

US7012749

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 7, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7012749. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[348]

A method and system for super resolution image capture using a mask

US7003177

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 6, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US7003177. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[347]

Method and device for polarization-based all-optical switching

US6807329

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 5, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US6807329. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[346]

Super resolving imaging system

US6344893

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 3, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US6344893. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[344]

Synthesis of light beams

US6343307

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 4, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US6343307. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[345]

Phase Only Filter for Generating an Arbitrary Illumination Pattern

US5909312

Author-reported · publication not independently inspected

First-party CV page 92, Issued Patents item 2, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US5909312. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[343]

Plasma dispersion effect based super-resolved imaging in silicon

US11506604

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 75, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US11506604. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[416]

Spatial encoding system decoding system imaging system and methods thereof

US11284786

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 73, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US11284786. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[414]

System and method for monitoring a sample

US11202040

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 72, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US11202040. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[413]

Photodetector for scanning probe microscope

US11169176

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 71, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US11169176. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[412]

System and method for use in remote sensing

US11085753

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 70, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US11085753. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[411]

Enhancing imaging by multicore fiber endoscopes

US11061185

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 69, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US11061185. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[410]

Vibration sensing system with wavelength encoding

US10989517

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 68, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10989517. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[409]

Sample inspection utilizing time modulated illumination

US10931881

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 67, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10931881. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[408]

Ultrahigh resolution photonic spectral processor

US10914633

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 66, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10914633. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[407]

Optical transforming and modulated interference pattern of a moving object

US10883818

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 65, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10883818. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[406]

System and method for optical monitoring using symmetry condition of light field

US10861171

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 64, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10861171. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[405]

System and method for blood pressure measurement

US10750956

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 62, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10750956. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[403]

Coherent fluorescence super-resolution microscopy

US10585272

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 58, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10585272. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[399]

Multi optically-coupled channels module and related methods of computation

US10429580

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 57, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10429580, US10838139. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[398]

Non-immunogenic and nuclease resistant n ucleic acid origami devices and compositions thereof

US10420842

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 56, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10420842. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[397]

Illumination sources for multicore fiber endoscopes

US10398294

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 54, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10398294. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[395]

Toric ophthalmic lens having extended depth of focus

US10394051

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 55, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10394051. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[396]

Gas slab laser

US10186825

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 53, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10186825. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[394]

System and method for imaging with pinhole arrays

US10033996

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 51, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: US10033996. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[392]

Imaging system and method using multi core fiber

JP5989666

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 42, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: JP5989666. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[383]

Optical magnetic sensing system

IL224958

Author-reported · publication not independently inspected

First-party CV page 93, Issued Patents item 52, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: IL224958. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[393]

A system and method for depth flow inspection

EP3790450B1

Author-reported · publication not independently inspected

First-party CV page 94, Issued Patents item 76, explicitly credits Z. Zalevsky. CV-listed US/representative identifiers: EP3790450B1. CV-only attribution; publication kind code, publication date and applicant not verified, so no values are invented. The record URL points to the inspected CV page. The CV item is an editorial grouping, not an audited worldwide patent family. Additional jurisdiction forms appear in the source snapshot; ambiguous application/internal references are not independently counted.[417]

Original report snapshot

Original evidence: reported only

The official profile reports approximately 100 patents, but this bounded pass did not inspect a specific record, family scope or ownership.[116]

Records are counted separately from identified families. Author-reported entries are labelled and may still need publication verification. Inventorship, publication-time applicant and current ownership are different facts. No legal-status, patentability or freedom-to-operate conclusion is made.

Scores prioritize research fit from 1–10; they are not probabilities.

Review: Reviewed with limitations

Proposed capability matches, not confirmed relationships. Scores are analyst judgments with low forecast confidence; researcher interests, capacity and feasibility need confirmation.

Internal connections

13 candidates

Connection 1

Tomer Lewi

Research fit

Original proposal

Proposal hypothesis: Lewi's metasurface design and Zalevsky's super-resolution and nanophotonics meet on compact imaging with controlled angular response.[67][68][116][117][138]

First test and score details

First test

Proposed first test: Compare a simulated metasurface imaging element with a conventional aperture over fixed angles; measure reconstruction error and tolerance to aberration.

Score components

complementarity
2
feasible first test
3
topic overlap
4

Why this rank

Rank 1/13; fit 9/10 (4 topic overlap + 2 complementarity + 3 feasible first test). Preserved original co-membership proposal in o06. No strictly higher-scoring candidate displaces this original. Substantial optics overlap reduces complementarity; any diagnostic gain requires a separate application test. No automatic score boost for original membership. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work. Original initiative conditions remain: o06 Tomer Lewi: Conditional later role: add a photonic component only if the baseline study identifies an optical bottleneck that it can address. o06 Zeev Zalevsky: Conditional later role: assess an imaging/readout change only if it targets the dominant measured bottleneck.

Connection 2

Nisan Ozana

Research fit

Proposal hypothesis: Ozana's diffuse brain monitoring and Zalevsky's biomedical and fiber sensing offer complementary routes to identify motion-sensitive optical artifacts.[41][42][116][117][138]

First test and score details

First test

Proposed first test: Compare two optical readout models on a tissue phantom with controlled motion; measure perfusion-estimate bias and repeatability.

Score components

complementarity
3
feasible first test
2
topic overlap
4

Why this rank

Rank 2/13; fit 9/10 (4 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. Phantom performance does not establish human monitoring or clinical utility. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 3

Shahar Alon

Research fit

Proposal hypothesis: Alon's expansion sequencing and Zalevsky's super-resolution methods can test optical resolution against spatial molecular registration accuracy.[60][61][116][117][138]

First test and score details

First test

Proposed first test: Use an open image stack or known-point phantom to compare localization error before and after a reconstruction step.

Score components

complementarity
3
feasible first test
2
topic overlap
4

Why this rank

Rank 3/13; fit 9/10 (4 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. Apparent resolution gains may create false spots; sequencing identity and registration controls are required. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Show 10 moreShow fewer internal connections

Connection 4

Amos Danielli

Research fit

Original proposal

Proposal hypothesis: Danielli's optical background suppression and Zalevsky's biomedical optics could separate sample preparation gains from readout gains.[45][46][47][116][117][138]

First test and score details

First test

Proposed first test: Measure a fixed phantom/dilution panel with a standard readout and a proposed optical reconstruction; report detection repeatability and background sensitivity.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 4/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). Preserved original co-membership proposal in o06. An added candidate, Nisan Ozana (9/10), ranks above this original because its stated pair-specific roles and first test score higher; this original is limited as follows: A new readout must target the dominant measured error; broader imaging expertise alone is not evidence of assay improvement. No automatic score boost for original membership. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work. Original initiative conditions remain: o06 Zeev Zalevsky: Conditional later role: assess an imaging/readout change only if it targets the dominant measured bottleneck.

Connection 5

Rachela Popovtzer

Research fit

Original proposal

Proposal hypothesis: Popovtzer can define nanoprobe contrast and nonspecific uptake controls while Zalevsky assesses an optical imaging readout.[53][54][116][117][138]

First test and score details

First test

Proposed first test: Use a tissue-mimicking phantom with known probe concentrations to compare contrast recovery and depth sensitivity against a conventional image.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 5/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). Preserved original co-membership proposal in o06. An added candidate, Nisan Ozana (9/10), ranks above this original because its stated pair-specific roles and first test score higher; this original is limited as follows: An optical phantom cannot establish in-vivo targeting, safety or therapeutic efficacy. No automatic score boost for original membership. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work. Original initiative conditions remain: o06 Zeev Zalevsky: Conditional later role: assess an imaging/readout change only if it targets the dominant measured bottleneck.

Connection 6

Orit Shefi

Research fit

Proposal hypothesis: Shefi's three-dimensional neural cultures provide controlled structures for Zalevsky's super-resolution and biomedical imaging.[8][116][117][138]

First test and score details

First test

Proposed first test: Generate a known-geometry 3D phantom or use existing labelled culture images to compare reconstruction error with conventional microscopy.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 6/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. Resolution improvement must preserve viability and avoid unsupported functional interpretation. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 7

Alexander Tesler

Research fit

Proposal hypothesis: Tesler's antifouling interfaces could preserve the calibration of Zalevsky's fiber or biomedical optical sensing surfaces.[12][13][116][117][138]

First test and score details

First test

Proposed first test: Use a sensor-window phantom with controlled deposits and compare signal drift for coated and uncoated windows.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 7/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. Optical transparency and coating longevity must be checked independently. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 8

Yossef Efraim Panfil

Research fit

Proposal hypothesis: Panfil's nanocrystal emitters provide point-source and background controls for Zalevsky's super-resolution optics.[25][26][116][117][138]

First test and score details

First test

Proposed first test: Use a synthetic emitter-spacing series with a fixed photon budget and compare recovered separation and false splitting against conventional imaging.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 8/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. No biological labelling performance or emitter stability in tissue is claimed. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 9

Moti Fridman

Research fit

Proposal hypothesis: Fridman's temporal microscopy and Zalevsky's super-resolution imaging could test complementary limits on time and spatial resolution.[34][116][117][138]

First test and score details

First test

Proposed first test: Propagate a synthetic fast-moving target through separate and combined resolution models; report recovered spatial and temporal bandwidth.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 9/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. A common optical architecture and photon budget are unverified. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 10

Boris Desiatov

Research fit

Proposal hypothesis: Zalevsky can define a fiber or biomedical optical measurement while Desiatov tests an integrated nonlinear readout component.[116][117][135][136][138]

First test and score details

First test

Proposed first test: Model one phantom-derived spectrum through an on-chip converter and compare reconstruction error and optical loss with conventional detection.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 10/13; fit 8/10 (3 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. The converter must address a measured readout bottleneck, not merely miniaturize it. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 11

Yaara Erez

Research fit

Proposal hypothesis: Erez can define a neural or behavioural reference signal and Zalevsky can test whether a non-contact optical proxy tracks it reliably.[28][29][116][117][138]

First test and score details

First test

Proposed first test: Specify a synthetic or existing approved paired dataset and compare lag-aware association with motion-only and shuffled controls.

Score components

complementarity
3
feasible first test
2
topic overlap
2

Why this rank

Rank 11/13; fit 7/10 (2 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. An optical proxy is not neural activity; human work needs its own protocol and consent. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 12

Miri Blau

Research fit

Proposal hypothesis: Blau's quantum frequency control and Zalevsky's imaging methods could examine whether spectral multiplexing improves a bounded reconstruction task.[37][38][116][117][138]

First test and score details

First test

Proposed first test: Simulate two frequency-labelled image channels at equal photons and compare reconstruction error with ordinary spectral separation.

Score components

complementarity
3
feasible first test
2
topic overlap
2

Why this rank

Rank 12/13; fit 7/10 (2 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. Frequency multiplexing does not imply improved spatial resolution or a quantum advantage. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

Connection 13

Roy Zektzer

Research fit

Proposal hypothesis: Zektzer's hybrid sensing interface could use Zalevsky's fiber-sensing and optical-readout expertise for a compact coupling comparison.[50][51][116][117][138]

First test and score details

First test

Proposed first test: Compare a free-space and fiber-coupled resonator model on collection loss and alignment drift.

Score components

complementarity
3
feasible first test
2
topic overlap
2

Why this rank

Rank 13/13; fit 7/10 (2 topic overlap + 3 complementarity + 2 feasible first test). New pairing outside the frozen portfolio co-member graph. Packaging and atomic operating conditions must be defined before the general optics contribution is useful. Equal scores use existing-first, then stable researcher ID.

Conditions

Analyst proposal hypothesis, not an established collaboration, commitment, evidence-confidence rating or assessment of researcher quality; confirm participation and access before work.

External connections

10 candidates

Connection 1

Aydogan Ozcan

University of California, Los Angeles

Research fit

Original proposal

Ozcan's official profile documents computational imaging, microscopy, biosensing and mobile-health systems that complement Zalevsky's optical hardware and scattering expertise; this is a proposed match.[116][117][118][482]

First test and score details

First test

Use calibrated tissue phantoms and a preregistered held-out set to compare reconstruction error and uncertainty with conventional low-cost imaging.

Score components

complementarity
3
feasible first test
2
topic overlap
4

Why this rank

Rank 1/10 after semantic revision; analyst score 9 = max(1, 4+3+2): topic overlap 4/4, complementarity 3/3, feasible first test 2/3. The experiment, numerical inputs or identity/scope needs confirmation before execution. Original remains first under these components; original status breaks equal-score ties only, without a prestige bonus.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified.

Connection 2

Gregory Wornell

Massachusetts Institute of Technology

Research fit

Proposed capability match: Zeev Zalevsky's super-resolution imaging, biomedical optics can be paired with Gregory Wornell's documented signal processing, statistical inference for passive optical digital twin for low-resource screening. The specific contribution is joint statistical inference and information constraints; this transfer is an analyst hypothesis.[110][116][117][503]

First test and score details

First test

Compare full-data inference with task-specific compressed statistics at fixed communication or storage budget using calibrated optical phantom images held out by scattering and acquisition condition. Compare estimation error, calibration and bits per valid decision with a conventional low-cost reconstruction with matched input information.

Score components

complementarity
3
feasible first test
3
topic overlap
3

Why this rank

Rank 2/10 after semantic revision; analyst score 9 = max(1, 3+3+3): topic overlap 3/4, complementarity 3/3, feasible first test 3/3. A bounded offline comparison is specified; required datasets and domain assumptions must still be checked.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified.

Connection 3

David Boas

Boston University

Research fit

Proposed capability match: Zeev Zalevsky's super-resolution imaging, biomedical optics can be paired with David Boas's documented neurophotonics, functional near-infrared spectroscopy for passive optical digital twin for low-resource screening. The specific contribution is neurovascular optical measurement; this transfer is an analyst hypothesis.[44][116][117][438]

First test and score details

First test

Fit a physiological optical forward model with controlled flow and absorption perturbations using calibrated optical phantom images held out by scattering and acquisition condition. Compare flow-estimation bias and sensitivity to extracerebral contamination with a conventional low-cost reconstruction with matched input information.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 3/10 after semantic revision; analyst score 8 = max(1, 3+3+2): topic overlap 3/4, complementarity 3/3, feasible first test 2/3. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified.

Show 7 moreShow fewer external connections

Connection 4

Yarin Gal

University of Oxford

Research fit

Proposed capability match: Zeev Zalevsky's super-resolution imaging, biomedical optics can be paired with Yarin Gal's documented Bayesian deep learning, uncertainty estimation for passive optical digital twin for low-resource screening. The specific contribution is uncertainty and selective prediction; this transfer is an analyst hypothesis.[78][116][117][452]

First test and score details

First test

Compare uncertainty estimates with calibrated single-model and ensemble baselines under a predefined shift using calibrated optical phantom images held out by scattering and acquisition condition. Compare calibration error, risk-coverage and confident-error rate with a conventional low-cost reconstruction with matched input information.

Score components

complementarity
3
feasible first test
3
topic overlap
2

Why this rank

Rank 4/10 after semantic revision; analyst score 8 = max(1, 2+3+3): topic overlap 2/4, complementarity 3/3, feasible first test 3/3. A bounded offline comparison is specified; required datasets and domain assumptions must still be checked.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified.

Connection 5

Michal Lipson

Columbia University

Research fit

Proposed capability match: Zeev Zalevsky's super-resolution imaging, biomedical optics can be paired with Michal Lipson's documented integrated nanophotonics, on-chip modulation for passive optical digital twin for low-resource screening. The specific contribution is integrated optical modulation and light confinement; this transfer is an analyst hypothesis.[40][116][117][469]

First test and score details

First test

Simulate a small integrated modulation/interference circuit with realistic propagation loss using calibrated optical phantom images held out by scattering and acquisition condition. Compare conversion or routing fidelity, insertion loss and fabrication sensitivity with a conventional low-cost reconstruction with matched input information.

Score components

complementarity
3
feasible first test
2
topic overlap
3

Why this rank

Rank 5/10 after semantic revision; analyst score 8 = max(1, 3+3+2): topic overlap 3/4, complementarity 3/3, feasible first test 2/3. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified.

Connection 6

Ed Boyden

Massachusetts Institute of Technology

Research fit

Proposed capability match for Zeev Zalevsky with Ed Boyden: Cellular imaging can complement computational microscopy when cellular labels and ground truth are specified rather than assumed in generic optical phantoms.[116][117][440]

First test and score details

First test

Generate labelled-cell image pairs with known cell positions, channel overlap and scattering. Compare registration/unmixing methods on identical rendered measurements by cell-localization error and false matches, with known synthetic labels as reference. This is a separate cellular-imaging branch; no optical manipulation of archived phantom images is possible.

Score components

complementarity
3
feasible first test
2
topic overlap
2

Why this rank

Rank 6/10 after semantic revision; analyst score 7 = max(1, 2+3+2): topic overlap 2/4, complementarity 3/3, feasible first test 2/3. Cellular imaging can complement computational microscopy when cellular labels and ground truth are specified rather than assumed in generic optical phantoms. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified. Post-review scope: Cellular imaging can complement computational microscopy when cellular labels and ground truth are specified rather than assumed in generic optical phantoms. This revised proposal awaits independent targeted re-review; simulated outcomes would establish model behavior only, not biological, clinical or deployed benefit.

Connection 7

Rikky Muller

University of California, Berkeley

Research fit

Proposed capability match: Zeev Zalevsky's super-resolution imaging, biomedical optics can be paired with Rikky Muller's documented integrated circuits, biosystems for passive optical digital twin for low-resource screening. The specific contribution is bioelectronic acquisition interfaces; this transfer is an analyst hypothesis.[116][117][436]

First test and score details

First test

Simulate front-end noise and sampling duty cycle before selecting a sensor interface using calibrated optical phantom images held out by scattering and acquisition condition. Compare signal-to-noise ratio and acquisition power with a conventional low-cost reconstruction with matched input information.

Score components

complementarity
3
feasible first test
2
topic overlap
2

Why this rank

Rank 7/10 after semantic revision; analyst score 7 = max(1, 2+3+2): topic overlap 2/4, complementarity 3/3, feasible first test 2/3. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified.

Connection 8

Jun-Chau Chien

University of California, Berkeley

Research fit

Proposed capability match for Zeev Zalevsky with Jun-Chau Chien: A biosensor acquisition interface could support optical measurement, but archived images alone provide neither fluidic samples nor a calibration experiment.[116][117][436]

First test and score details

First test

Define a prospective microfluidic optical detector with stipulated particle trajectories and detector waveforms. Compare two digital acquisition/calibration schemes on identical simulated trajectories and blank-channel noise by concentration-estimation bias and event-detection error. Hold fluidic behavior fixed; physical mixing and contamination need new sample experiments.

Score components

complementarity
2
feasible first test
2
topic overlap
2

Why this rank

Rank 8/10 after semantic revision; analyst score 6 = max(1, 2+2+2): topic overlap 2/4, complementarity 2/3, feasible first test 2/3. A biosensor acquisition interface could support optical measurement, but archived images alone provide neither fluidic samples nor a calibration experiment. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified. Post-review scope: A biosensor acquisition interface could support optical measurement, but archived images alone provide neither fluidic samples nor a calibration experiment. This revised proposal awaits independent targeted re-review; simulated outcomes would establish model behavior only, not biological, clinical or deployed benefit.

Connection 9

Stephen Quake

Stanford University

Research fit

Proposed capability match for Zeev Zalevsky with Stephen Quake: Cell-isolation expertise could motivate a measurement-bias study in a separate cellular branch, not a physical experiment on existing optical images.[116][117][487]

First test and score details

First test

Generate synthetic cell images and counts from a known population, then computationally apply capture-selection bias, cell overlap and background contamination. Hold image reconstruction fixed; compare inferred population counts under ideal versus biased capture against model truth. A real isolation/dilution protocol would require fresh samples and an explicitly selected cellular application.

Score components

complementarity
2
feasible first test
2
topic overlap
1

Why this rank

Rank 9/10 after semantic revision; analyst score 5 = max(1, 1+2+2): topic overlap 1/4, complementarity 2/3, feasible first test 2/3. Cell-isolation expertise could motivate a measurement-bias study in a separate cellular branch, not a physical experiment on existing optical images. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified. Post-review scope: Cell-isolation expertise could motivate a measurement-bias study in a separate cellular branch, not a physical experiment on existing optical images. This revised proposal awaits independent targeted re-review; simulated outcomes would establish model behavior only, not biological, clinical or deployed benefit.

Connection 10

Bin He

Carnegie Mellon University

Research fit

Proposed capability match for Zeev Zalevsky with Bin He: Electrophysiological methods are a conditional multimodal branch requiring a shared latent observable and acquisition model; the existing optical phantom does not supply that modality.[30][116][117][461]

First test and score details

First test

Specify a hypothetical joint optical/electrical sensing model with one known latent signal, separate forward operators and synchronized sampling. Compare optical-only and joint inverse estimation on the same synthetic trials by latent-signal error under modality dropout. First justify why electrophysiology belongs to the imaging application; no electrical signal is inferred from optical phantom pixels.

Score components

complementarity
2
feasible first test
1
topic overlap
1

Why this rank

Rank 10/10 after semantic revision; analyst score 4 = max(1, 1+2+1): topic overlap 1/4, complementarity 2/3, feasible first test 1/3. Electrophysiological methods are a conditional multimodal branch requiring a shared latent observable and acquisition model; the existing optical phantom does not supply that modality. The experiment, numerical inputs or identity/scope needs confirmation before execution.

Conditions

Proposed fit, not an assertion of a new or active relationship. Independent review pending; forecast confidence low. Partner interest, capacity, data access and any required experimental approvals/resources are unverified. Post-review scope: Electrophysiological methods are a conditional multimodal branch requiring a shared latent observable and acquisition model; the existing optical phantom does not supply that modality. This revised proposal awaits independent targeted re-review; simulated outcomes would establish model behavior only, not biological, clinical or deployed benefit.

Evidence & open questions

Inspect claim ratings and independent review

Zeev Zalevsky's official record spans super-resolution, biomedical optics, nanophotonics and optical-fiber sensing and reports a large patent portfolio. [116][117]

Moderate confidenceReview: reviewed

No individual patent record was inspected, and the 2023 CV may omit later outputs.

Review record
  • root: supports. The official profile lists super-resolution, biomedical optics, nanophotonics and fiber sensing. Its patent count is an institutional report, not independently enumerated patents; the CV is dated March 2023.

A passive optical digital twin for low-resource screening is a future research hypothesis joining Zalevsky's physical optics with Ozcan's computational microscopy. [116][118]

Low confidenceReview: reviewed

No diagnostic accuracy, affordability or clinical utility has been demonstrated.

Review record
  • root: supports. Zalevsky’s optical methods and Ozcan’s UCLA computational microscopy/biosensing scope support a possible pairing, but no low-resource screening efficacy is established.
Eliahu CohenAll researchersIlan Reuven Cohen