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License: CC0 1.0

41 to 50 of 37,407 Results

B0531+21_59000_48386_DM_time_dataset_realbased_training_32x32.npy May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar Unknown - 232.4 MB - MD5: a34392cf601f0768506dee1b21eeb6f8 Datadm_time DM-time training dataset downsampled to 32×32 resolution.
B0531+21_59000_48386_DM_time_dataset_realbased_training_64x64.npy May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar Unknown - 929.6 MB - MD5: 051da3b28302da65eed0f4a1a8b97b58 Datadm_time DM-time training dataset downsampled to 64×64 resolution.
B0531+21_59000_48386_DM_time_dataset_realbased_training.npy May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar Unknown - 14.5 GB - MD5: 20075c6fe8cce8fb86e5535d1ac6084a Datadm_time Full-resolution DM-time training dataset (256×256) derived from Crab Pulsar observations.
B0531+21_59000_48386.fil May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar Unknown - 3.1 GB - MD5: 3cf053e6bc46911eada8d19bcb591bf5 Datafilterbank This file contains radio observations of the Crab pulsar (PSR B0531+21) in SIGPROC's filterbank format, recorded with the Effelsberg radio telescope. The data represents rapidly sampled radio spectra spanning the 1210-1530 MHz frequency range. The file contains a minimal metadata encoded in the first 349 bytes, following which the spectra (256 bins...
pulsarx_dada_20240723.sif May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar Unknown - 494.0 MB - MD5: a6153f73969376cc87c92ed47558e3ee singularity_image Singularity image includes TransientX configured to work with a ringbuffer.
tensorflow_psrdada.sif May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar Unknown - 2.7 GB - MD5: c31dfc0ca3582d31bc09c060ec32f704 singularity_image The Singularity image includes the necessary Python libraries for the ML pipeline (TensorFlow/Keras, Matplotlib, NumPy, scikit-learn), as well as the psrdada library for working with a ringbuffer.
How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction Apr 30, 2025 Ekrem, Runa Kvamme; Jacobsen, Alexander; Kokko, Hanna; Kaiser, Tobias, 2025, "How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction", https://doi.org/10.17617/3.LNP6DC, Edmond, V1 Explaining coexistence via temporal niches is challenging. One possibility is that asymmetric dispersal makes timing differences translate into spatial differences. The marine midge Clunio marinus reproduces at specific lunar phases and lays eggs when the intertidal zone is maximally exposed by the tides. In Roscoff (France) sympatric timing strain...
Figure1_Code.zip Apr 30, 2025 - How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction ZIP Archive - 3.3 KB - MD5: 04b0ab8a90b70253b877680e77eae329
Figure2_CodeAndData.zip Apr 30, 2025 - How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction ZIP Archive - 10.5 KB - MD5: 3048bc660f0a35237973aa25b54d15ac
Figure3_CodeAndData.zip Apr 30, 2025 - How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction ZIP Archive - 76.0 MB - MD5: 6b0088cc7099101946de2f97de5a1ab5

B0531+21_59000_48386_DM_time_dataset_realbased_training_32x32.npy

May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar

Unknown - 232.4 MB -

Datadm_time

DM-time training dataset downsampled to 32×32 resolution.

B0531+21_59000_48386_DM_time_dataset_realbased_training_64x64.npy

May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar

Unknown - 929.6 MB -

Datadm_time

DM-time training dataset downsampled to 64×64 resolution.

B0531+21_59000_48386_DM_time_dataset_realbased_training.npy

May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar

Unknown - 14.5 GB -

Datadm_time

Full-resolution DM-time training dataset (256×256) derived from Crab Pulsar observations.

B0531+21_59000_48386.fil

May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar

Unknown - 3.1 GB -

Datafilterbank

This file contains radio observations of the Crab pulsar (PSR B0531+21) in SIGPROC's filterbank format, recorded with the Effelsberg radio telescope. The data represents rapidly sampled radio spectra spanning the 1210-1530 MHz frequency range. The file contains a minimal metadata encoded in the first 349 bytes, following which the spectra (256 bins...

pulsarx_dada_20240723.sif

May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar

Unknown - 494.0 MB -

singularity_image

Singularity image includes TransientX configured to work with a ringbuffer.

tensorflow_psrdada.sif

May 5, 2025 - Realtime identification of Dispersed Radio signals using ML - A Case Study on the Crab Pulsar

Unknown - 2.7 GB -

singularity_image

The Singularity image includes the necessary Python libraries for the ML pipeline (TensorFlow/Keras, Matplotlib, NumPy, scikit-learn), as well as the psrdada library for working with a ringbuffer.

How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction

Apr 30, 2025

Ekrem, Runa Kvamme; Jacobsen, Alexander; Kokko, Hanna; Kaiser, Tobias, 2025, "How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction", https://doi.org/10.17617/3.LNP6DC, Edmond, V1

Explaining coexistence via temporal niches is challenging. One possibility is that asymmetric dispersal makes timing differences translate into spatial differences. The marine midge Clunio marinus reproduces at specific lunar phases and lays eggs when the intertidal zone is maximally exposed by the tides. In Roscoff (France) sympatric timing strain...

Figure1_Code.zip

Apr 30, 2025 - How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction

ZIP Archive - 3.3 KB -

Figure2_CodeAndData.zip

Apr 30, 2025 - How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction

ZIP Archive - 10.5 KB -

Figure3_CodeAndData.zip

Apr 30, 2025 - How an insect converts time into space: Temporal niches aid coexistence via modifying the amount of habitat available for reproduction

ZIP Archive - 76.0 MB -

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