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Paper Citation Record · LEDGER

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell

As of 22 August 2026, this Paper Citation Record lists 29 of 29 outbound references and 0 inbound Pith citation observations for arXiv:2510.20057.

A citation records a reference. It does not transfer a finding from one paper to another.

pith.paper-citation-record.v1
2510.20057 v1

Coverage vector

measured 29 of 29 reference resolution

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Source: paper_references, paper_reference_links, observed 2026-08-04T08:33:12.890994Z

measured 29 of 29 standing notices

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Source: scholarly_work_events, retraction_status_cache, observed 2026-08-22T06:32:14.747728+00:00

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Pith citing papers itemized under the disclosed page cap.

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29 of 29 outbound references displayed

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Outbound references

Observation fe7b5b4d-b76d-4857-aff1-737c61d807b1 · outbound

This paper cites Laser frequency noise in next generation gravitational-wave detectors,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Laser frequency noise in next generation gravitational-wave detectors,

Reference 1

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source=pdf_text observed=2026-08-04T08:33:09.520142Z digest=sha256:21b73ae97ce4727825546ea7def686b1054afba682394afad9822fd4375f042c

Observation f6f9d663-c7fd-47e4-9355-a8dc2b5cd65d · outbound

This paper cites In-orbitperformanceofthegracefollow-onlaserranginginterferometer,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell In-orbitperformanceofthegracefollow-onlaserranginginterferometer,

Reference 2

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source=pdf_text observed=2026-08-04T08:33:09.580008Z digest=sha256:50bd1bac05991085f936fdd6470a4ca26803d79338cd581664b20ba102027232

Observation c73ddef7-3a87-4e40-b294-6c781a2a60e4 · outbound

This paper cites Optical atomic clocks,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Optical atomic clocks,

Reference 3

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source=pdf_text observed=2026-08-04T08:33:09.643357Z digest=sha256:1fe6e697f5610330540fecd30d0caf2dad3ec05ec167dd01af794988182a2315

Observation 8933c5c5-e3f3-471b-8122-8131c8474ec5 · outbound

This paper cites Laser-frequency stabilization via a quasimonolithic mach-zehnder interferometer with arms of unequal length and balanced dc readout,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Laser-frequency stabilization via a quasimonolithic mach-zehnder interferometer with arms of unequal length and balanced dc readout,

Reference 4

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source=pdf_text observed=2026-08-04T08:33:09.711110Z digest=sha256:409741f190a4b7676f3f3c8e47db19cdedb78d2f59083d0f5ab40187a6e52fd3

Observation 5d28caf9-7791-4fed-8edf-20d83337b5f3 · outbound

This paper cites Development of a compact optical absolute frequency reference for space with 10−15 instability,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Development of a compact optical absolute frequency reference for space with 10−15 instability,

Reference 5

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source=pdf_text observed=2026-08-04T08:33:09.846461Z digest=sha256:4566f4f0b659ba0444952136d8e02e37f6fdcbdeecd5fea639c3efa61a714295

Observation ac633e4a-24c1-4d74-a126-765a1a2f35d7 · outbound

This paper cites Absolute frequency measurement of a 1.5-µm acetylene standard by use of a combined frequency chain and femtosecond comb,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Absolute frequency measurement of a 1.5-µm acetylene standard by use of a combined frequency chain and femtosecond comb,

Reference 6

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source=pdf_text observed=2026-08-04T08:33:09.970241Z digest=sha256:1d4e3266736c39f5521e1de33ddfd9a997ad9088e9e6bd26347dc8076c943a5f

Observation e6cc5a0e-a3c0-4805-9b16-5adb97e8e6b1 · outbound

This paper cites Measurement of optical rubidium clock frequency spanning 65 days,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Measurement of optical rubidium clock frequency spanning 65 days,

Reference 7

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source=pdf_text observed=2026-08-04T08:33:10.117127Z digest=sha256:4838caf4186723b5a1fa1fb737eea513aa89a5477abda4bf94b9a9a633604b4a

Observation 81b39ef4-f555-400e-9e4e-dcd0609b3a0a · outbound

This paper cites High performance molecular iodine optical reference using an unsaturated vapor cell,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell High performance molecular iodine optical reference using an unsaturated vapor cell,

Reference 8

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source=pdf_text observed=2026-08-04T08:33:10.268151Z digest=sha256:2fe182f79afed59ed3ec1361275572c4f5041c291d856109b510d86e947df4aa

Observation fea226a4-cc44-40ba-89e8-5a33a8477032 · outbound

This paper cites Realization of four-pass𝑖2 absorption cell in 532-nm optical frequency standard,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Realization of four-pass𝑖2 absorption cell in 532-nm optical frequency standard,

Reference 9

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source=pdf_text observed=2026-08-04T08:33:10.375786Z digest=sha256:82b81d98431d2dc41ddd6ea24e03df186c67899cbb90459400639cd3be34915a

Observation e95750fd-9095-4593-9c60-0012458e088b · outbound

This paper cites Simultaneous laser frequency stabilization to an optical cavity and an iodine frequency reference,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Simultaneous laser frequency stabilization to an optical cavity and an iodine frequency reference,

Reference 10

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source=pdf_text observed=2026-08-04T08:33:10.421332Z digest=sha256:0af7e7280709b78e7bb488838531f0ad50af66a6419d10ed19abd777efd7da41

Observation 54c26870-5262-4d97-a86c-5e32e534954a · outbound

This paper cites High sensitivity optomechanical reference accelerometer over 10 khz,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell High sensitivity optomechanical reference accelerometer over 10 khz,

Reference 11

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source=pdf_text observed=2026-08-04T08:33:10.512338Z digest=sha256:b6aa2b419b145c46258b1385e45ca918f4f9e731cc52ac6e6f3de0d63da7297f

Observation 148a24c5-c961-41fc-9ff9-a40abf85c524 · outbound

This paper cites Iodine frequency reference on a sounding rocket,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Iodine frequency reference on a sounding rocket,

Reference 12

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source=pdf_text observed=2026-08-04T08:33:10.635624Z digest=sha256:02822e5bae5ac6ea0edb51d0620f470d70add9c93e2cd1778f75734cc8bde9cf

Observation d1f0fbf8-8808-466a-a191-8fbf94f3309b · outbound

This paper cites A flight-like absolute optical frequency reference based on iodine for laser systems at 1064 nm,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell A flight-like absolute optical frequency reference based on iodine for laser systems at 1064 nm,

Reference 13

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source=pdf_text observed=2026-08-04T08:33:10.814445Z digest=sha256:6a73fcf791d3fe4954eb7588672bb8ea664d5339f631e006271ef789577449f4

Observation 30b8b19e-9666-4950-8c9a-3e3e9a819afc · outbound

This paper cites Compact, stable and efficient all-fibre gas cells using hollow-core photonic crystal fibres,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Compact, stable and efficient all-fibre gas cells using hollow-core photonic crystal fibres,

Reference 14

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source=pdf_text observed=2026-08-04T08:33:10.938156Z digest=sha256:27df797175d6c9eaac9126b3360dd454333d9aac2d1fe577afab687e9216a183

Observation 066d91e5-cb74-411f-9838-7b81425d9a3e · outbound

This paper cites Saturation spectroscopy of iodine in hollow-core optical fiber,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Saturation spectroscopy of iodine in hollow-core optical fiber,

Reference 15

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source=pdf_text observed=2026-08-04T08:33:11.028944Z digest=sha256:978180abfcf58e075cc0bdbe9b89253be5585ec4f8888006a9dabd8fc23468ef

Observation dcd6d6d3-d992-46cf-8835-d7ca7f44bacd · outbound

This paper cites High-performance iodine fiber frequency standard,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell High-performance iodine fiber frequency standard,

Reference 16

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no resolver link, observed 2026-08-04T08:33:11.163430Z

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source=pdf_text observed=2026-08-04T08:33:11.163430Z digest=sha256:6ab82cbdd14cf6e3db752f465d1e897debf5a5fc7dd6656d7ed3f76642f72ba3

Observation 244ea7d5-62b3-4002-baff-089ab61faf92 · outbound

This paper cites 10kHzaccuracyofanopticalfrequencyreferencebasedon 12c2h2-filledlarge-core kagome photonic crystal fibers,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell 10kHzaccuracyofanopticalfrequencyreferencebasedon 12c2h2-filledlarge-core kagome photonic crystal fibers,

Reference 17

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source=pdf_text observed=2026-08-04T08:33:11.294370Z digest=sha256:771b0da42dcbf1726552446dcdf2cf35d84c4d6db86da5c6067ff42486d4a3f6

Observation 2eff01e4-3caa-4b77-b30e-1b0ee0564419 · outbound

This paper cites Broadband robustly single-mode hollow-core pcf by resonant filtering of higher-order modes,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Broadband robustly single-mode hollow-core pcf by resonant filtering of higher-order modes,

Reference 18

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source=pdf_text observed=2026-08-04T08:33:11.437330Z digest=sha256:818229dc861112c2941a41f777b6cc1e4047d14e5c86c8f2fb31a9dd37a7ca8c

Observation 247b2cf8-153a-4b3b-95a0-8d8c0427043d · outbound

This paper cites 20µm-core polarization maintaining endlessly single mode photonic crystal fiber for delivery of high-power single frequency lasers,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell 20µm-core polarization maintaining endlessly single mode photonic crystal fiber for delivery of high-power single frequency lasers,

Reference 19

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source=pdf_text observed=2026-08-04T08:33:11.574334Z digest=sha256:49c4146c112507931666429ba0538ace31d6c46e91c84332b930e5fe27f016b8

Observation 1fc775fc-8723-4e6d-8276-9c74e5e71856 · outbound

This paper cites Identification of bloch-modes in hollow-core photonic crystal fiber cladding,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Identification of bloch-modes in hollow-core photonic crystal fiber cladding,

Reference 20

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source=pdf_text observed=2026-08-04T08:33:11.744476Z digest=sha256:17dabe0cf19a09f5876967ced6f31ccbe1ccc05fb232d02a16f6a388a8ec414e

Observation 6000237c-220e-4586-9bd5-bf1009cd97f1 · outbound

This paper cites Limitations due to residual interference in a fiber-based optical frequency reference at 1.55µm,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Limitations due to residual interference in a fiber-based optical frequency reference at 1.55µm,

Reference 21

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source=pdf_text observed=2026-08-04T08:33:11.844713Z digest=sha256:dc0d679180daccd96b6e45dcc4492134345bf988e0df5f459dfbd1189e021fe5

Observation 9d7fc562-beab-41b4-a510-d100ee71f9b5 · outbound

This paper cites Contaminant-freeend-cappedandsingle-modeacetylenephotonicmicrocell for sub-doppler spectroscopy,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Contaminant-freeend-cappedandsingle-modeacetylenephotonicmicrocell for sub-doppler spectroscopy,

Reference 22

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source=pdf_text observed=2026-08-04T08:33:12.073193Z digest=sha256:ff7279a408b49607b034987e5290f90029343e2b0c0072ce52cc763036ebd164

Observation a012095a-2ebd-4cd6-93e3-0181d9a2c53d · outbound

This paper cites Fabrication and characterization of iodine photonic microcells for sub-doppler spectroscopy applications,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Fabrication and characterization of iodine photonic microcells for sub-doppler spectroscopy applications,

Reference 23

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source=pdf_text observed=2026-08-04T08:33:12.174969Z digest=sha256:ee40a84f7d674c41ce7baa094b277a6c3f1097348d166219940ce9a27c9483ad

Observation fa886b1d-2a95-477e-91d2-938565160539 · outbound

This paper cites Toward a compact fiber comb with 1.66×10−12 instability based on acetylene-filled photonic microcells,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Toward a compact fiber comb with 1.66×10−12 instability based on acetylene-filled photonic microcells,

Reference 24

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source=pdf_text observed=2026-08-04T08:33:12.254185Z digest=sha256:690b0169e18badaed8fc4836d3ee7fce6255856bb23c272fbe81fb3051c4283c

Observation 94e9e14d-6a0e-44c2-8723-0d5e3ea2df04 · outbound

This paper cites Acetylene frequency references in gas-filled hollow optical fiber and photonic microcells,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Acetylene frequency references in gas-filled hollow optical fiber and photonic microcells,

Reference 25

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source=pdf_text observed=2026-08-04T08:33:12.407834Z digest=sha256:f3c0bb70e3ae86b0ea503ba4bd3499f7644573a2df8205e4c7602b7222aa09e5

Observation 3e7fc790-c85e-4fa2-b889-caaa9b4437ee · outbound

This paper cites Hermetic optical-fiber iodine frequency standard,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Hermetic optical-fiber iodine frequency standard,

Reference 26

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source=pdf_text observed=2026-08-04T08:33:12.593688Z digest=sha256:680561bb3c4a5387eaef5dd9d5b7fc47f940c81957adb096eef63df09109ff52

Observation c85c1961-8204-41ff-b509-597e5125ec88 · outbound

This paper cites FM-Spectroscopy: Compact Module for Frequency Modulation (FM) Spectroscopy,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell FM-Spectroscopy: Compact Module for Frequency Modulation (FM) Spectroscopy,

Reference 27

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source=pdf_text observed=2026-08-04T08:33:12.680595Z digest=sha256:20cf3fb1a9670914ad980680559dbf5f8b462fe952ff0feb0cd9f2531b26bc31

Observation 731b9aeb-f59f-4c30-9f4e-197410c988d0 · outbound

This paper cites Polarization maintaining single-mode low-loss hollow-core fibres,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Polarization maintaining single-mode low-loss hollow-core fibres,

Reference 28

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source=pdf_text observed=2026-08-04T08:33:12.791468Z digest=sha256:fb8d82ea5cf4bf04e9876cd73dd156b6fc459a03335bb22b0979725829fd0982

Observation fdc693de-4761-4678-b9d3-5383cdd02fd4 · outbound

This paper cites Large-coreacetylene-filledphotonicmicrocellsmadebytapering a hollow-core photonic crystal fiber,.

Demonstration of $\bf3.5\times10^{-13}$ laser frequency stability at 1000 s using an iodine-filled hollow-core fiber photonic microcell Large-coreacetylene-filledphotonicmicrocellsmadebytapering a hollow-core photonic crystal fiber,

Reference 29

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source=pdf_text observed=2026-08-04T08:33:12.890994Z digest=sha256:ba130a4aa3e46af11aedb3cf17036d813083d143848290427936159410953f27

Pith citing papers

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