
2025-09-03 09:34:03
Interference Between FM Cell Sites and CDMA Cell Sites
P. Kumar
https://arxiv.org/abs/2509.00567 https://arxiv.org/pdf/2509.00567
Interference Between FM Cell Sites and CDMA Cell Sites
P. Kumar
https://arxiv.org/abs/2509.00567 https://arxiv.org/pdf/2509.00567
cintestinalis: Tadpole larva brain (C. intestinalis)
Entire connectivity matrix for the complete brain of a larva of Ciona intestinalis. Each directed edge represents a synaptic connection from pre-synaptic cell i to post-synaptic cell j (may not be a neuron). Edge weights represent the cumulative depth of presynaptic contacts in µm.
This network has 205 nodes and 2903 edges.
Tags: Biological, Connectome, Weighted
Generalized promotion time cure model: A new modeling framework to identify cell-type-specific genes and improve survival prognosis
Zhi Zhao, Fatih Kizilaslan, Shixiong Wang, Manuela Zucknick
https://arxiv.org/abs/2509.01001
Joint Power Control and Precoding for Cell-Free Massive MIMO Systems With Sparse Multi-Dimensional Graph Neural Networks
Yukun Ma, Jiayi Zhang, Ziheng Liu, Guowei Shi, Bo Ai
https://arxiv.org/abs/2507.01876
On the shape of the typical Poisson-Voronoi cell in high dimensions
Matthias Irlbeck, Zakhar Kabluchko, Tobias M\"uller
https://arxiv.org/abs/2506.02607
Systematic Evaluation of Trade-Offs in Motion Planning Algorithms for Optimal Industrial Robotic Work Cell Design
G. de Mathelin, C. Hartl-Nesic, A. Kugi
https://arxiv.org/abs/2509.02146
I finally bought my wife a cell phone. Years ago she had one, but when the battery failed she didn't want one as she used the landline. Last year or so she wanted a cell phone as the screen is larger (much larger) than the cordless phone, usable contact list, voice mail that is easy to access and use and can quickly pull up a notepad or calendar.
Last week I picked up the phone for her. It was a toss-up between Samsung and Motorola. My phone is Samsung and the tablet is Samsung…
Lessons Learned from Deploying Adaptive Machine Learning Agents with Limited Data for Real-time Cell Culture Process Monitoring
Thanh Tung Khuat, Johnny Peng, Robert Bassett, Ellen Otte, Bogdan Gabrys
https://arxiv.org/abs/2509.02606
Cell-Scale Dynamic Modeling of Membrane Interactions with Arbitrarily Shaped Particles
Didarul Ahasan Redwan, Justin Reicher, Xin Yong
https://arxiv.org/abs/2506.02376
Boolean-network simplification and rule fitting to unravel chemotherapy resistance in non-small cell lung cancer
Alonso Espinoza, Eric Goles, Marco Montalva-Medel
https://arxiv.org/abs/2506.02525
Change of bifurcation type in 2D free boundary model of a moving cell with nonlinear diffusion
Leonid Berlyand, Oleksii Krupchytskyi, Tim Laux
https://arxiv.org/abs/2506.03138
All-optical classification of real biomedical cell images using a diffractive neural network: a simulation study
Norihide Sagami, Yueyun Weng, Cheng Lei, Ryosuke Oketani, Kotaro Hiramatsu
https://arxiv.org/abs/2509.00370
Highly Efficient and Broadband Optical Delay Line towards a Quantum Memory
Yu Guo, Anindya Banerji, Jia Boon Chin, Arya Chowdhury, Alexander Ling
https://arxiv.org/abs/2509.02096
Projective Delineability for Single Cell Construction
Jasper Nalbach, Lucas Michel, Erika \'Abrah\'am, Christopher W. Brown, James H. Davenport, Matthew England, Pierre Mathonet, Na\"im Z\'ena\"idi
https://arxiv.org/abs/2508.00512
The first-ever human trial exploring the use of stem cell therapy to reverse hearing loss is about to be under way,
after getting the go-ahead from the UK’s Medicines and Healthcare products Regulatory Agency.
In a nutshell, the treatment,
dubbed Rincell-1,
is intended to regrow damaged nerves in the cochlea
and allow them to start sending signals to the brain again.
Seaweed-Based Growth Media Could Replace Traditional Cell Culture Media in Cultivated Meat Production https://vegconomist.com/algae-microalgae-seaweed/seaweed-based-growth-media-replace-traditional-cell-…
Particle-in-Cell Simulations of Burning ICF Capsule Implosions
Johannes J. van de Wetering, Justin R. Angus, W. Farmer, V. Geyko, D. Ghosh, D. Grote, C. Weber, G. Zimmerman
https://arxiv.org/abs/2506.02273
Is Synthetic Image Augmentation Useful for Imbalanced Classification Problems? Case-Study on the MIDOG2025 Atypical Cell Detection Competition
Leire Benito-Del-Valle, Pedro A. Moreno-S\'anchez, Itziar Egusquiza, Itsaso Vitoria, Artzai Pic\'on, Cristina L\'opez-Saratxaga, Adrian Galdran
https://arxiv.org/abs/2509.02612
Enhanced Single-Cell RNA-seq Embedding through Gene Expression and Data-Driven Gene-Gene Interaction Integration
Hojjat Torabi Goudarzi, Maziyar Baran Pouyan
https://arxiv.org/abs/2509.02639
Interval-sphere model structures
Kathryn Hess, Samuel Lavenir, Kelly Maggs
https://arxiv.org/abs/2507.02382 https://arxiv.org/pdf/250…
I've been following the #Meshtastic and #meshnetwork hashtags for a few months now. Cool article came out in Wired
Uncovering smooth structures in single-cell data with PCS-guided neighbor embeddings
Rong Ma, Xi Li, Jingyuan Hu, Bin Yu
https://arxiv.org/abs/2506.22228 h…
A structure-preserving and thermodynamically compatible cell-centered Lagrangian finite volume scheme for continuum mechanics
Walter Boscheri, Michael Dumbser, Raphael Loub\`ere, Pierre-Henri Maire
https://arxiv.org/abs/2506.03081
🔍 Multifocus microscope pushes the limits of fast live 3D biological imaging
#microscope
Rapid Single-Cell Measurement of Transient Transmembrane Water Flow under Osmotic Gradient
Hong Jiang, Jinnawat Jongkhumkrong, Y. J. Chao, Qian Wang, Guiren Wang
https://arxiv.org/abs/2508.00104
This https://arxiv.org/abs/2501.13774 has been replaced.
initial toot: https://mastoxiv.page/@arXiv_mat…
Faster Inference of Cell Complexes from Flows via Matrix Factorization
Til Spreuer, Josef Hoppe, Michael T. Schaub
https://arxiv.org/abs/2508.21372 https://
epiGPTope: A machine learning-based epitope generator and classifier
Natalia Flechas Manrique, Alberto Mart\'inez, Elena L\'opez-Mart\'inez, Luc Andrea, Rom\'an Orus, Aitor Manteca, Aitziber L. Cortajarena, Lloren\c{c} Espinosa-Portal\'es
https://arxiv.org/abs/2509.03351
An Integrated Lab on a CD Microfluidic Platform for High-Efficiency Blood Cell Separation and Passive Mixing
Reza Lotfi Navaei, Haniyeh Tehrani
https://arxiv.org/abs/2507.01977
Fluid Aerial Networks: UAV Rotation for Inter-Cell Interference Mitigation
Enzhi Zhou, Yue Xiao, Ziyue Liu, Sotiris A. Tegos, Panagiotis D. Diamantoulakis, George K. Karagiannidis
https://arxiv.org/abs/2507.01289
The algebraic small object argument as a saturation
Evan Cavallo, Christian Sattler
https://arxiv.org/abs/2506.02759 https://arxiv.or…
The UK's obligatory inshore fishing vessel position reporting system (I-VMS) appears to have launched without one of the suppliers having a finalised contract. So they just stopped relaying the data.
(It's not like AIS - it batches up positional data and relays via cell-towers when in range.)
https://www.
Long post, game design
Crungle is a game designed to be a simple test of general reasoning skills that's difficult to play by rote memory, since there are many possible rule sets, but it should be easy to play if one can understand and extrapolate from rules. The game is not necessarily fair, with the first player often having an advantage or a forced win. The game is entirely deterministic, although a variant determines the rule set randomly.
This is version 0.1, and has not yet been tested at all.
Crungle is a competitive game for two players, each of whom controls a single piece on a 3x3 grid. The cells of the grid are numbered from 1 to 9, starting at the top left and proceeding across each row and then down to the next row, so the top three cells are 1, 2, and 3 from left to right, then the next three are 4, 5, and 6 and the final row is cells 7, 8, and 9.
The two players decide who shall play as purple and who shall play as orange. Purple goes first, starting the rules phase by picking one goal rule from the table of goal rules. Next, orange picks a goal rule. These two goal rules determine the two winning conditions. Then each player, starting with orange, alternate picking a movement rule until four movement rules have been selected. During this process, at most one indirect movement rule may be selected. Finally, purple picks a starting location for orange (1-9), with 5 (the center) not allowed. Then orange picks the starting location for purple, which may not be adjacent to orange's starting position.
Alternatively, the goal rules, movement rules, and starting positions may be determined randomly, or a pre-determined ruleset may be selected.
If the ruleset makes it impossible to win, the players should agree to a draw. Either player could instead "bet" their opponent. If the opponent agrees to the bet, the opponent must demonstrate a series of moves by both players that would result in a win for either player. If they can do this, they win, but if they submit an invalid demonstration or cannot submit a demonstration, the player who "bet" wins.
Now that starting positions, movement rules, and goals have been decided, the play phase proceeds with each player taking a turn, starting with purple, until one player wins by satisfying one of the two goals, or until the players agree to a draw. Note that it's possible for both players to occupy the same space.
During each player's turn, that player identifies one of the four movement rules to use and names the square they move to using that rule, then they move their piece into that square and their turn ends. Neither player may use the same movement rule twice in a row (but it's okay to use the same rule your opponent just did unless another rule disallows that). If the movement rule a player picks moves their opponent's piece, they need to state where their opponent's piece ends up. Pieces that would move off the board instead stay in place; it's okay to select a rule that causes your piece to stay in place because of this rule. However, if a rule says "pick a square" or "move to a square" with some additional criteria, but there are no squares that meet those criteria, then that rule may not be used, and a player who picks that rule must pick a different one instead.
Any player who incorrectly states a destination for either their piece or their opponent's piece, picks an invalid square, or chooses an invalid rule has made a violation, as long as their opponent objects before selecting their next move. A player who makes at least three violations immediately forfeits and their opponent wins by default. However, if a player violates a rule but their opponent does not object before picking their next move, the stated destination(s) of the invalid move still stand, and the violation does not count. If a player objects to a valid move, their objection is ignored, and if they do this at least three times, they forfeit and their opponent wins by default.
Goal rules (each player picks one; either player can win using either chosen rule):
End your turn in the same space as your opponent three turns in a row.
End at least one turn in each of the 9 cells.
End five consecutive turns in the three cells in any single row, ending at least one turn on each of the three.
End five consecutive turns in the three cells in any single column, ending at least one turn on each of the three.
Within the span of 8 consecutive turns, end at least one turn in each of cells 1, 3, 7, and 9 (the four corners of the grid).
Within the span of 8 consecutive turns at least one turn in each of cells 2, 4, 6, and 8 (the central cells on each side).
Within the span of 8 consecutive turns, end at least one turn in the cell directly above your opponent, and end at least one turn in the cell directly below your opponent (in either order).
Within the span of 8 consecutive turns at least one turn in the cell directly to the left of your opponent, and end at least one turn in the cell directly to the right of your opponent (in either order).
End 12 turns in a row without ending any of them in cell 5.
End 8 turns in a row in 8 different cells.
Movement rules (each player picks two; either player may move using any of the four):
Move to any cell on the board that's diagonally adjacent to your current position.
Move to any cell on the board that's orthogonally adjacent to your current position.
Move up one cell. Also move your opponent up one cell.
Move down one cell. Also move your opponent down one cell.
Move left one cell. Also move your opponent left one cell.
Move right one cell. Also move your opponent right one cell.
Move up one cell. Move your opponent down one cell.
Move down one cell. Move your opponent up one cell.
Move left one cell. Move your opponent right one cell.
Move right one cell. Move your opponent left one cell.
Move any pieces that aren't in square 5 clockwise around the edge of the board 1 step (for example, from 1 to 2 or 3 to 6 or 9 to 8).
Move any pieces that aren't in square 5 counter-clockwise around the edge of the board 1 step (for example, from 1 to 4 or 6 to 3 or 7 to 8).
Move to any square reachable from your current position by a knight's move in chess (in other words, a square that's in an adjacent column and two rows up or down, or that's in an adjacent row and two columns left or right).
Stay in the same place.
Swap places with your opponent's piece.
Move back to the position that you started at on your previous turn.
If you are on an odd-numbered square, move to any other odd-numbered square. Otherwise, move to any even-numbered square.
Move to any square in the same column as your current position.
Move to any square in the same row as your current position.
Move to any square in the same column as your opponent's position.
Move to any square in the same row as your opponent's position.
Pick a square that's neither in the same row as your piece nor in the same row as your opponent's piece. Move to that square.
Pick a square that's neither in the same column as your piece nor in the same column as your opponent's piece. Move to that square.
Move to one of the squares orthogonally adjacent to your opponent's piece.
Move to one of the squares diagonally adjacent to your opponent's piece.
Move to the square opposite your current position across the middle square, or stay in place if you're in the middle square.
Pick any square that's closer to your opponent's piece than the square you're in now, measured using straight-line distance between square centers (this includes the square your opponent is in). Move to that square.
Pick any square that's further from your opponent's piece than the square you're in now, measured using straight-line distance between square centers. Move to that square.
If you are on a corner square (1, 3, 7, or 9) move to any other corner square. Otherwise, move to square 5.
If you are on an edge square (2, 4, 6, or 8) move to any other edge square. Otherwise, move to square 5.
Indirect movement rules (may be chosen instead of a direct movement rule; at most one per game):
Move using one of the other three movement rules selected in your game, and in addition, your opponent may not use that rule on their next turn (nor may they select it via an indirect rule like this one).
Select two of the other three movement rules, declare them, and then move as if you had used one and then the other, applying any additional effects of both rules in order.
Move using one of the other three movement rules selected in your game, but if the move would cause your piece to move off the board, instead of staying in place move to square 5 (in the middle).
Pick one of the other three movement rules selected in your game and apply it, but move your opponent's piece instead of your own piece. If that movement rule says to move "your opponent's piece," instead apply that movement to your own piece. References to "your position" and "your opponent's position" are swapped when applying the chosen rule, as are references to "your turn" and "your opponent's turn" and do on.
#Game #GameDesign
A 10-bit S-box generated by Feistel construction from cellular automata
Thomas Pr\'evost (I3S), Bruno Martin (I3S)
https://arxiv.org/abs/2507.02489 htt…
Immunometabolism at the Crossroads of Infection: Mechanistic and Systems-Level Perspectives from Host and Pathogen
Sunayana Malla, Nabia Shahreen, Rajib Saha
https://arxiv.org/abs/2506.02236
About 9 million years ago, a natural inbreeding in the wild between tomato plants and a potato-like plant species in present-day South America gave way to what we know as the potato.
This new (and nutritious) plant arose from an evolutionary event that triggered the formation of the tuber–the underground structure that plants like potatoes, yams, and taros use to store food.
The findings are detailed in a study published July 31 in the journal Cell.
Cellular, Cell-less, and Everything in Between: A Unified Framework for Utility Region Analysis in Wireless Networks
Renato Luis Garrido Cavalcante, Tomasz Piotrowski, Slawomir Stanczak
https://arxiv.org/abs/2507.23707
Integrating Pathology and CT Imaging for Personalized Recurrence Risk Prediction in Renal Cancer
Dani\"el Boeke, Cedrik Blommestijn, Rebecca N. Wray, Kalina Chupetlovska, Shangqi Gao, Zeyu Gao, Regina G. H. Beets-Tan, Mireia Crispin-Ortuzar, James O. Jones, Wilson Silva, Ines P. Machado
https://arxiv.org/abs/2508.21581
High-resolution spatial memory requires grid-cell-like neural codes
Madison Cotteret, Christopher J. Kymn, Hugh Greatorex, Martin Ziegler, Elisabetta Chicca, Friedrich T. Sommer
https://arxiv.org/abs/2507.00598
Privacy is not a fool's game. If you give up today everything you did will be lost...
There is always a way or there will be soon.
#privacy
🇺🇦 Auf #radioeins läuft...
Soft Cell:
🎵 Tainted Love
#NowPlaying #SoftCell
https://djaf.bandcamp.com/track/soft-cell-tainted-love-djaf-remix
https://open.spotify.com/track/0cGG2EouYCEEC3xfa0tDFV
Symport/Antiport P Systems with Membrane Separation Characterize P^(#P)
Vivien Ducros, Claudio Zandron
https://arxiv.org/abs/2507.01657
TubuleTracker: a high-fidelity shareware software to quantify angiogenesis architecture and maturity
Danish Mahmood, Stephanie Buczkowski, Sahaj Shah, Autumn Anthony, Rohini Desetty, Carlo R Bartoli
https://arxiv.org/abs/2507.02024
This https://arxiv.org/abs/2505.14806 has been replaced.
initial toot: https://mastoxiv.page/@arXiv_qbi…
🧬 Scrambled RNA nudges millions of people towards type 2 diabetes, research reveals
https://medicalxpress.com/news/2025-08-scrambled-rna-nudges-millions-people.html
Rigid body rotation and chiral reorientation combine in filamentous E. coli swimming in low-Re flows
Richard Z. DeCurtis, Yongtae Ahn, Jane Hill, Sara M. Hashmi
https://arxiv.org/abs/2508.00779
Neues von den Orkas: Sie benutzen und basteln sich Werkzeuge.
https://www.cell.com/current-biology/fulltext/S0960-9822(25)00450-6?ref=404media.co
Control of Covalent Bond Enables Efficient Magnetic Cooling
Xin Tang, Yoshio Miura, Noriki Terada, Enda Xiao, Shintaro Kobayashi, Allan Doring, Terumasa Tadano, Andres Martin-Cid, Takuo Ohkochi, Shogo Kawaguchi, Yoshitaka Matsushita, Tadakatsu Ohkubo, Tetsuya Nakamura, Konstantin Skokov, Oliver Gutfleisch, Kazuhiro Hono, Hossein Sepehri-Amin
https://
Downregulation of aquaporin 3 promotes hyperosmolarity-induced apoptosis of nucleus pulposus cells through PI3K/Akt/mTOR pathway suppression
Yuan Sang, Huiqing Zhao, Jiajun Wu, Ting Zhang, Wenbin Xu, Hui Yao, Kaihua Liu, Chang Liu, Junbin Zhang, Ping Li, Depeng Wu, Yichun Xu, Jianying Zhang, Gang Hou
https://arxiv.org/abs/2507.0…
Stateful Logic In-Memory Using Gain-Cell eDRAM
Barak Hoffer, Shahar Kvatinsky
https://arxiv.org/abs/2506.23185 https://arxiv.org/pdf/…
Integrating nano- and micrometer-scale energy deposition models for mechanistic prediction of radiation-induced DNA damage and cell survival
Giulio Bordieri, Marta Missiggia, Gianluca Lattanzi, Carmen Villagrasa, Yann Perrot, Francesco G. Cordoni
https://arxiv.org/abs/2507.00929
"Each #prisoner is allowed 20 floppy disks, but flash drives are verboten."
The Australian Identification, Nowcasting and Tracking Algorithm (A.I.N.T.)
Jordan Brook, Hamish McGowan, Matt Mason, Joshua Soderholm, Alain Protat
https://arxiv.org/abs/2509.02929
Trump Organization scrubs the Trump Mobile site of language indicating the T1 Phone phone is to be made in the US, now says it is "brought to life" in the US (Anthony Robledo/USA Today)
https://www.usatoday.com/story/tech/2025/06/25/trump-cel…
Who has ridden the California Zephyr recently? It’s been many years for me. I know there is no Wi-Fi but curious if there’s decent cell service, particularly interested between Emeryville and Grand Junction. Or if there are particular zones that are no service at all. Not interested in being on my phone but like to give a heads up to a couple of family members when I will not be reachable at all so they don’t worry.
The Growing Impact of Unintended Starlink Broadband Emission on Radio Astronomy in the SKA-Low Frequency Range
Dylan Grigg, Steven Tingay, Marcin Sokolowski
#toXiv_bot_toot
🇺🇦 #NowPlaying on KEXP's #Early
Soft Cell:
🎵 Say Hello, Wave Goodbye
#SoftCell
https://nightingaleexperience.bandcamp.com/track/cover-of-soft-cell-say-hello-wave-goodbye
https://open.spotify.com/track/0Lx6O1tC3CPF1giLJIt5Jv
This https://arxiv.org/abs/2408.03984 has been replaced.
initial toot: https://mastoxiv.page/@arX…
Electric Field Induced Superconductivity in Bilayer Octagraphene
Yitong Yao, Jun Li, Jiacheng Ye, Fan Yang, Dao-Xin Yao
https://arxiv.org/abs/2507.02830 ht…
AI-Driven Vehicle Condition Monitoring with Cell-Aware Edge Service Migration
Charalampos Kalalas, Pavol Mulinka, Guillermo Candela Belmonte, Miguel Fornell, Michail Dalgitsis, Francisco Paredes Vera, Javier Santaella S\'anchez, Carmen Vicente Villares, Roshan Sedar, Eftychia Datsika, Angelos Antonopoulos, Antonio Fern\'andez Ojea, Miquel Payaro
Simulation-based inference of yeast centromeres
Elo\"ise Touron, Pedro L. C. Rodrigues, Julyan Arbel, Nelle Varoquaux, Michael Arbel
https://arxiv.org/abs/2509.00200 https:…
cintestinalis: Tadpole larva brain (C. intestinalis)
Entire connectivity matrix for the complete brain of a larva of Ciona intestinalis. Each directed edge represents a synaptic connection from pre-synaptic cell i to post-synaptic cell j (may not be a neuron). Edge weights represent the cumulative depth of presynaptic contacts in µm.
This network has 205 nodes and 2903 edges.
Tags: Biological, Connectome, Weighted
Physics-Informed Machine Learning with Adaptive Grids for Optical Microrobot Depth Estimation
Lan Wei, Lou Genoud, Dandan Zhang
https://arxiv.org/abs/2509.02343 https://
Cell-Free Massive MIMO SWIPT with Beyond Diagonal Reconfigurable Intelligent Surfaces
Duc Thien Hua, Mohammadali Mohammadi, Hien Quoc Ngo, Michail Matthaiou
https://arxiv.org/abs/2507.23702
Adaptive Learning Strategies for Mitotic Figure Classification in MIDOG2025 Challenge
Biwen Meng, Xi Long, Jingxin Liu
https://arxiv.org/abs/2509.02640 https://
When Blood Parts Ways: Phase Separation in Microstructured Environments
Sampad Laha, Ananta Kumar Nayak, Alexander Farutin, Suman Chakraborty, Chaouqi Misbah
https://arxiv.org/abs/2509.01408
Green One-Bit Quantized Precoding in Cell-Free Massive MIMO
Salih G\"um\"usbu\u{g}a, Ozan Alp Topal, \"Ozlem Tu\u{g}fe Demir
https://arxiv.org/abs/2507.22400 http…
Mixtures of Neural Network Experts with Application to Phytoplankton Flow Cytometry Data
Ethan Pawl, Fran\c{c}ois Ribalet, Paul A. Parker, Sangwon Hyun
https://arxiv.org/abs/2507.01375
Design and Analysis of Plasmonic-Nanorod-Enhanced Lead-Free Inorganic Perovskite/Silicon Heterojunction Tandem Solar Cell Exceeding the Shockley-Queisser Limit
Md. Sad Abdullah Sami, Arpan Sur, Ehsanur Rahman
https://arxiv.org/abs/2507.22803
A modified Crank-Nicolson scheme for the Vlasov-Poisson system with a strong external magnetic field
Francis Filbet (UT, IMT), L Miguel Rodrigues (IRMAR), Kim Han Trinh (IRMAR)
https://arxiv.org/abs/2507.02459
Cell-Probe Lower Bounds via Semi-Random CSP Refutation: Simplified and the Odd-Locality Case
Venkatesan Guruswami, Xin Lyu, Weiqiang Yuan
https://arxiv.org/abs/2507.22265 https:…
Flexibility versus genericity of phase diagrams of perturbed continuous maps on the Cantor set
Hugo Marsan, Mathieu Sablik
https://arxiv.org/abs/2508.00461 https://
EDEN: Entorhinal Driven Egocentric Navigation Toward Robotic Deployment
Mikolaj Walczak, Romina Aalishah, Wyatt Mackey, Brittany Story, David L. Boothe Jr., Nicholas Waytowich, Xiaomin Lin, Tinoosh Mohsenin
https://arxiv.org/abs/2506.03046
Orthotropic Viscoelastic Creep in Cellular Scaffolds
Alessia Ferrara, Falk K. Wittel
https://arxiv.org/abs/2507.01071 https://arxiv.org/pdf/2507.01071
Intrinsic local Gauss's law preserving PIC method: A self-consistent field-particle update scheme for plasma simulations
Zhonghua Qiao, Zhenli Xu, Qian Yin, Shenggao Zhou
https://arxiv.org/abs/2506.02407
This https://arxiv.org/abs/2411.11190 has been replaced.
initial toot: https://mastoxiv.page/@arXiv_ees…
CARTEpigenoQC: A Quality Control Toolkit for CAR-T Single-Cell Epigenomic Data
Kaitao Lai
https://arxiv.org/abs/2507.23048 https://arxiv.org/pdf/2507.23048…
Cooperative Sensing in Cell-free Massive MIMO ISAC Systems: Performance Optimization and Signal Processing
Haotian Liu, Zhiqing Wei, Luyang Sun, Ruizhong Xu, Yixin Zhang, Zhiyong Feng
https://arxiv.org/abs/2506.23473
Place-cell heterogeneity underlies power-laws in hippocampal activity
John J. Briguglio, Jaesung Lee, Albert K. Lee, Vincent Hakim, Sandro Romani
https://arxiv.org/abs/2507.23030
Discovery of the Type-II Superconductor Ta$_4$Rh$_2$C$_{1-\delta}$ with a High Upper Critical Field
KeYuan Ma, Sara L\'opez-Paz, Karolina Gornicka, Harald O. Jeschke, Tomasz Klimczuk, Fabian O. von Rohr
https://arxiv.org/abs/2506.02209
Active spin model for cell assemblies on 1D substrates
Harshal Potdar, Ignacio Pagonabarraga, Sudipto Muhuri
https://arxiv.org/abs/2507.22639 https://arxiv…
Nonlinear Power Amplifier-Resilient Cell-Free Massive MIMO: A Joint Optimization Approach
Wei Jiang, Hans D. Schotten
https://arxiv.org/abs/2506.22094 http…
🦠 From pond to polymer: Chemists create fully recyclable plastics using whole-cell algae
https://phys.org/news/2025-08-pond-polymer-chemists-fully-recyclable.html
... I'm always amazed at what people do with ball mills
This https://arxiv.org/abs/2403.14848 has been replaced.
initial toot: https://mastoxiv.page/@arXiv_mat…
Replaced article(s) found for physics.bio-ph. https://arxiv.org/list/physics.bio-ph/new
[1/1]:
- Inverse 3D Microscopy Rendering for Cell Shape Inference with Active Mesh
Sacha Ichbiah, Anshuman Sinha, Fabrice Delbary, Herv\'e Turlier
Service Placement in Small Cell Networks Using Distributed Best Arm Identification in Linear Bandits
Mariam Yahya, Aydin Sezgin, Setareh Maghsudi
https://arxiv.org/abs/2506.22480 …
Perfect adaptation in eukaryotic gradient sensing using cooperative allosteric binding
Vishnu Srinivasan, Wei Wang, Brian A. Camley
https://arxiv.org/abs/2509.00219 https://
On Performance of IoT Networks with Coordinated NOMA Transmission: Covert Monitoring and Information Decoding
Thai-Hoc Vu, Anh-Tu Le, Ngo Hoang Tu, Tan N. Nguyen, Miroslav Voznak
https://arxiv.org/abs/2509.01935
Enhanced Mesenchymal Stem Cell Response with Preserved Biocompatibility via (MnZn)Ferrite--Polyacrylonitrile Composite Nanofiber Membranes
Baran Sarac, Elham Sharifikolouei, Matej Micusik, Alessandro Scalia, Ziba Najmi, Andrea Cochis, Lia Rimondini, Gabriele Barrera, Marco Coisson, Selin G\"umr\"ukc\"u, Eray Y\"uce, A. Sezai Sarac
Heterogeneous Massive MIMO: A Cost-Efficient Technique for Uniform Service in Cellular Networks
Wei Jiang, Hans D. Schotten
https://arxiv.org/abs/2506.22000
Deep Reinforcement Learning-based Cell DTX/DRX Configuration for Network Energy Saving
Wei Mao, Lili Wei, Omid Semiari, Shu-ping Yeh, Hosein Nikopour
https://arxiv.org/abs/2507.21385
Energy-Aware Resource Allocation for Multi-Operator Cell-Free Massive MIMO in V-CRAN Architectures
Derya Nurcan-Atceken, \"Ozlem Tu\u{g}fe Demir, Aysegul Altin-Kayhan, Emil Bj\"ornson, Cicek Cavdar, Bulent Tavli
https://arxiv.org/abs/2507.21644
Achieving Optimal Performance-Cost Trade-Off in Hierarchical Cell-Free Massive MIMO
Wei Jiang, Hans D Schotten
https://arxiv.org/abs/2508.20704 https://arx…
This https://arxiv.org/abs/2312.11683 has been replaced.
initial toot: https://mastoxiv.page/@arXi…
Joint RIS-UE Association and Beamforming Design in RIS-Assisted Cell-Free MIMO Network
Hongqin Ke, Jindan Xu, Wei Xu, Chau Yuen, Zhaohua Lu
https://arxiv.org/abs/2506.21690
Permeability heterogeneity and bulk linear elasticity determine interfacial pattern morphologies during confined, miscible displacements of clay suspensions
Vaibhav Raj Singh Parmar, Ranjini Bandyopadhyay
https://arxiv.org/abs/2509.02335
Distributed Iterative ML and Message Passing for Grant-Free Cell-Free Massive MIMO Systems
Zilu Zhao, Christian Forsch, Laura Cottatellucci, Dirk Slock
https://arxiv.org/abs/2507.21363
A First Look at Inter-Cell Interference in the Wild
Daqian Ding, Yibo Pi, Cailian Chen
https://arxiv.org/abs/2508.20060 https://arxiv.org/pdf/2508.20060
BS-1-to-N: Diffusion-Based Environment-Aware Cross-BS Channel Knowledge Map Generation for Cell-Free Networks
Zhuoyin Dai, Di Wu, Yong Zeng, Xiaoli Xu, Xinyi Wang, Zesong Fei
https://arxiv.org/abs/2507.23236
Comprehensive Analysis of Behavioral Hardware Impairments in Cell-Free Massive MIMO-OFDM Uplink: Centralized Operation
\"Ozlem Tu\u{g}fe Demir, Muhammed Selman Somuncu, Ahmet M. Elbir, Emil Bj\"ornson
https://arxiv.org/abs/2507.21626