cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.9919649
title: starpg10_fast_cfix_T05.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919652.v1
title: circpg50_fast_T25.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919637
title: circ_pg_coopE_fine_T25_N10.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919640
title: comp_pg_coopE_rough_N40.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919646.v1
title: comp_pg_coopE_rough_N10.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919640.v1
title: comp_pg_coopE_rough_N40.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919643.v1
title: circpg10_fast_dfix_T05.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919628
title: star_pg_coopE_fine_T25_N10.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919631
title: circpg10_fast_cfix_T05.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919634
title: starpg10_fast.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919637.v1
title: circ_pg_coopE_fine_T25_N10.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.6084/m9.figshare.9919649.v1
title: starpg10_fast_cfix_T05.csv from The effect of network topology on optimal exploration strategies and the evolution of cooperation in a mobile population

description: We model a mobile population interacting over an underlying spatial structure using a Markov movement model. Interactions take the form of public goods games, and can feature an arbitrary group size. Individuals choose strategically to remain at their current location or to move to a neighbouring location, depending upon their exploration strategy and the current composition of their group. This builds upon previous work where the underlying structure was a complete graph (i.e. there was effectively no structure). Here, we consider alternative network structures and a wider variety of, mainly larger, populations. Previously, we had found when cooperation could evolve, depending upon the values of a range of population parameters. In our current work, we see that the complete graph considered before promotes stability, with populations of cooperators or defectors being relatively hard to replace. By contrast, the star graph promotes instability, and often neither type of population can resist replacement. We discuss potential reasons for this in terms of network topology.
DOI: 10.17876/plate/dr.4/plates/208_90556
title: Digital object identifier (DOI) for the plate 90556 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90557
title: Digital object identifier (DOI) for the plate 90557 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90558
title: Digital object identifier (DOI) for the plate 90558 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90559
title: Digital object identifier (DOI) for the plate 90559 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/cnp2-5b46
title: F16t-PI2WL1 pollen surface sample dataset

description: Raw data for the F16t-PI2WL1 pollen surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90560
title: Digital object identifier (DOI) for the plate 90560 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90561
title: Digital object identifier (DOI) for the plate 90561 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90562
title: Digital object identifier (DOI) for the plate 90562 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90563
title: Digital object identifier (DOI) for the plate 90563 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/yf39-9n16
title: Plot2.11_370X60 pollen surface sample dataset

description: Raw data for the Plot2.11_370X60 pollen surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90564
title: Digital object identifier (DOI) for the plate 90564 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90565
title: Digital object identifier (DOI) for the plate 90565 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90566
title: Digital object identifier (DOI) for the plate 90566 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90567
title: Digital object identifier (DOI) for the plate 90567 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/zwbq-he18
title: Plot1.4_150X100 pollen surface sample dataset

description: Raw data for the Plot1.4_150X100 pollen surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90568
title: Digital object identifier (DOI) for the plate 90568 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90569
title: Digital object identifier (DOI) for the plate 90569 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90570
title: Digital object identifier (DOI) for the plate 90570 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90571
title: Digital object identifier (DOI) for the plate 90571 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/dtj0-ac72
title: Lake Consuelo pollen surface sample dataset

description: Raw data for the Lake Consuelo pollen surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90572
title: Digital object identifier (DOI) for the plate 90572 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90573
title: Digital object identifier (DOI) for the plate 90573 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90574
title: Digital object identifier (DOI) for the plate 90574 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90575
title: Digital object identifier (DOI) for the plate 90575 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/gmh2-gq84
title: PS87/055 dinoflagellates dataset

description: Raw data for the PS87/055 dinoflagellates dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90576
title: Digital object identifier (DOI) for the plate 90576 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90577
title: Digital object identifier (DOI) for the plate 90577 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90578
title: Digital object identifier (DOI) for the plate 90578 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90579
title: Digital object identifier (DOI) for the plate 90579 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/xmey-s004
title: Middle Lake diatom surface sample dataset

description: Raw data for the Middle Lake diatom surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90580
title: Digital object identifier (DOI) for the plate 90580 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90581
title: Digital object identifier (DOI) for the plate 90581 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90582
title: Digital object identifier (DOI) for the plate 90582 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90583
title: Digital object identifier (DOI) for the plate 90583 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90584
title: Digital object identifier (DOI) for the plate 90584 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/03d3-bz81
title: Lake Jarveotsa loss-on-ignition dataset

description: Raw data for the Lake Jarveotsa loss-on-ignition dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90585
title: Digital object identifier (DOI) for the plate 90585 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90586
title: Digital object identifier (DOI) for the plate 90586 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90587
title: Digital object identifier (DOI) for the plate 90587 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90588
title: Digital object identifier (DOI) for the plate 90588 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90589
title: Digital object identifier (DOI) for the plate 90589 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90590
title: Digital object identifier (DOI) for the plate 90590 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90591
title: Digital object identifier (DOI) for the plate 90591 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/pz9j-h751
title: VolcanBaru2240m.3 pollen surface sample dataset

description: Raw data for the VolcanBaru2240m.3 pollen surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90592
title: Digital object identifier (DOI) for the plate 90592 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90593
title: Digital object identifier (DOI) for the plate 90593 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90594
title: Digital object identifier (DOI) for the plate 90594 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90595
title: Digital object identifier (DOI) for the plate 90595 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90596
title: Digital object identifier (DOI) for the plate 90596 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/vd8s-0579
title: F12t-PGPE2L1 pollen surface sample dataset

description: Raw data for the F12t-PGPE2L1 pollen surface sample dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90597
title: Digital object identifier (DOI) for the plate 90597 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90598
title: Digital object identifier (DOI) for the plate 90598 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90599
title: Digital object identifier (DOI) for the plate 90599 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90600
title: Digital object identifier (DOI) for the plate 90600 in archive 208 from the APPLAUSE DR4
DOI: 10.21233/m5mx-je75
title: Rock Lake water chemistry dataset

description: Raw data for the Rock Lake water chemistry dataset obtained from the Neotoma Paleoecology Database.
DOI: 10.17876/plate/dr.4/plates/208_90601
title: Digital object identifier (DOI) for the plate 90601 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90602
title: Digital object identifier (DOI) for the plate 90602 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90603
title: Digital object identifier (DOI) for the plate 90603 in archive 208 from the APPLAUSE DR4
DOI: 10.17876/plate/dr.4/plates/208_90604
title: Digital object identifier (DOI) for the plate 90604 in archive 208 from the APPLAUSE DR4