cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.1418389
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail #7-group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 7, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418390.v1
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail #12 -group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 12, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1419654.v11
title: Cuke Particle Positions - 2068-2077

description: LTRANS V2 raw output: Longitude, Latitude, depth, boundary status, and release site. Directories are structured as G1998\152\1\ meaning treatmentyear\releaseday\bin\. Directories labelled with the year 2098-2107 actually correspond to the years 2068-2077. Files are named para 1002.csv which contains all the positions (of that treatment, year, site, and release day) at the end of the first day. Text files labeled as rl_01.txt are the release locations. The grid shapefile is represents the cucumber habitat from which larvae were released
DOI: 10.6084/m9.figshare.1418393.v1
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail #10-group 2)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 10, of the first experimental group</strong>. In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418388
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail # 9 - group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 9, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418389.v1
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail #7-group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 7, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418392.v1
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail # 8 -group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 8, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418386
title: Pairwise molecular similarities between DrugBank compounds

description: Molecular similarities were calculated between pairs of DrugBank compounds using structures from the DrugBank SDF download. First, a Morgan (circular) fingerprint with radius 2 was calculated for each compound. Dice coefficients were used to quantify fingerprint similarity.
DOI: 10.6084/m9.figshare.1419654.v12
title: Cuke Particle Positions - 2068-2077

description: LTRANS V2 raw output: Longitude, Latitude, depth, boundary status, and release site. Directories are structured as G1998\152\1\ meaning treatmentyear\releaseday\bin\. Directories labelled with the year 2098-2107 actually correspond to the years 2068-2077. Files are named para 1002.csv which contains all the positions (of that treatment, year, site, and release day) at the end of the first day. Text files labeled as rl_01.txt are the release locations. The grid shapefile is represents the cucumber habitat from which larvae were released
DOI: 10.6084/m9.figshare.1418384
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail # 6 -group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 6, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418387
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail # 11 - group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 11, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418388.v1
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail # 9 - group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 9, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.
DOI: 10.6084/m9.figshare.1418387.v1
title: High resolution locomotor time series in Japanese quail in a home-cage environment over a 6.5 day period (quail # 11 - group 1)

description: Each data point represents a 0.5s time interval (xi) in which the quail could either been ambulating (xi=1) or immobile (xi=0), over a 6.5 day period .The total number of data points is approximately 1.070.000. This time series has been shown to present both a fractal pattern, as well as ultradian and circadian rhythms. <strong>This is the data from quail number 11, of the first experimental group.</strong> In this experiment as a whole, the locomotor activity of 24 adult females quail (100-140 days old) was evaluated in a home-cage environment in a white wooden box measuring 40 x 40 x 40 cm (width x length x height, respectively) with a wire mesh floor. A metal bar wall divided the box in two same-size zones (feeding, nesting), and an opening served as a door allowing the bird to move freely between compartments. A video camera that automatically switched to infrared recording after lights were turned off was suspended 1.5m above the box. It was connected to a computer in an adjacent room and could be accessed remotely by experimenters. Testing began at approximately 1:00 PM, when 12 quail were placed in a box, and transported to a nearby experimental room. Each bird was then placed individually in the feeding zone of one of the boxes. During the following 6.5 days, the birds’ locomotor activity was continuously recorded. Testing ended at 9 PM the 7th day. Daily maintenance activities (egg collection, cleaning and feeding) were performed between 12 and 12:30 PM; the activity during this period was not included in time series, which in total implied a loss of 2% from the data set. Since only 12 birds could be tested simultaneously, two consecutive groups of 12 individuals were evaluated (group 1 and group 2). We used the commercially available ANY-MAZE@ computer program to register locomotion at 0.5 s intervals (xi). The locomotor time series (1.07e6 time intervals) of each bird was obtained by assigning a number one (xi = 1) if during the interval the bird was ambulating, or a zero (xi = 0) if immobile.