Search results for "PIP"

showing 10 items of 1156 documents

Quo Vadis, Orthotrichum pulchellum? A Journey of Epiphytic Moss across the European Continent

2022

Orthotrichum pulchellum is a species of epiphytic moss in which a significant expansion from the oceanic part of Europe to the east of the continent has been observed in the recent two decades. The improvement in air quality in Central and Eastern Europe, but also climate change, probably plays a role in this. This study shows what direction of its spreading we can expect in the future. Ecological niche modeling (ENM) is a widespread method to find out species niches in environmental and geographical space, which allows us to highlight areas that have a higher probability of occurrences of the studied species, based on identifying similar environmental conditions to those already known. We …

climate changeexpansionEcologybryophytes; climate change; distribution; ecological requirements; epiphytic moss; expansion; Maxent; species distribution modelingbryophytesecological requirementdistributionPlant Scienceepiphytic mossMaxentspecies distribution modelingEcology Evolution Behavior and SystematicsPlants; Volume 11; Issue 20; Pages: 2669
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A gearbox model for processing large volumes of data by using pipeline systems encapsulated into virtual containers

2020

Software pipelines enable organizations to chain applications for adding value to contents (e.g., confidentially, reliability, and integrity) before either sharing them with partners or sending them to the cloud. However, the pipeline components add overhead when processing large volumes of data, which can become critical in real-world scenarios. This paper presents a gearbox model for processing large volumes of data by using pipeline systems encapsulated into virtual containers. In this model, the gears represent applications, whereas gearboxes represent software pipelines. This model was implemented as a collaborative system that automatically performs Gear up (by using parallel patterns…

cloud storageCloud storageComputer Networks and CommunicationsComputer scienceDistributed computingcontinuous deliveryCloud computing02 engineering and technologyVirtual containersSoftwareIn-memory storage0202 electrical engineering electronic engineering information engineeringParallel patternssoftware pipelinesInformáticabusiness.industryvirtual containers020206 networking & telecommunicationsPipeline (software)Cloud storage; Continuous delivery; In-memory storage; Parallel patterns; Software pipelines; Virtual containersPipeline transportin-memory storageContinuous deliveryHardware and ArchitectureSoftware deploymentparallel patternsContainer (abstract data type)020201 artificial intelligence & image processingbusinessCloud storageSoftwareSoftware pipelinesFuture Generation Computer Systems
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Crystal structure and Hirshfeld surface analysis of 3-octyl-4-oxo-2,6-bis(3,4,5-trimethoxyphenyl)piperidinium chloride

2018

The title compound was synthesized by a one-pot Mannich condensation reaction. In the crystal, centrosymmetric dimers are linked into layers parallel to (011) by N—H⋯Cl and C—H⋯Cl hydrogen bonds. A Hirshfeld surface analysis indicates that O—H (20.5%) inter­actions make the largest contribution to the crystal packing.

crystal structureCyclohexane conformationCrystal structure010403 inorganic & nuclear chemistryRing (chemistry)01 natural sciencesMedicinal chemistryChlorideResearch CommunicationsCrystalchemistry.chemical_compoundMannich reactionmedicineHirshfeld surface analysisGeneral Materials ScienceBenzeneMannich reactionCrystallography010405 organic chemistryHydrogen bondChemistryGeneral ChemistryCondensed Matter Physics0104 chemical sciencesQD901-999piperidine-4-onemedicine.drugActa Crystallographica Section E Crystallographic Communications
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Crystal structure of chlorido-{4,5-dimeth-oxy-2-[(2,3-η)-2-prop-2-en-1-yl]phenyl-κC (1)}(piperidine-κN)platinum(II) ethanol monosolvate

2014

The title platinum(II) complex shows a trigonal–bipyramidal coordination and inter­molecular C—H⋯Cl, C—H⋯π and (C/O)—H⋯O hydrogen bonds.

crystal structureEthanolChemistryHydrogen bondchemistry.chemical_elementGeneral ChemistryCrystal structuremethyl­eugenolCondensed Matter Physicshydrogen bondingMedicinal chemistryResearch CommunicationsCrystallcsh:Chemistrychemistry.chemical_compoundmethyleugenollcsh:QD1-999General Materials SciencePiperidinePlatinumplatinum(II) complex
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1,1′-(Diphosphene-1,2-diyl)bis(2,2,6,6-tetramethylpiperidine)

2017

The title compound, C18H36N2P2, crystallizes in the triclinic space groupP-1 with two independent molecules in the asymmetric unit. Both molecules adopt atransconfiguration of the tetramethylpiperidine units along the P=P axis. The crystal packing is stabilized only by van der Waals interactions.

crystal structurebiologyChemistryStereochemistryDiphospheneCrystal structureTriclinic crystal system010402 general chemistry010403 inorganic & nuclear chemistrybiology.organism_classification01 natural sciencesMedicinal chemistry0104 chemical scienceslow-coordinate trivalent phosphorusCrystalchemistry.chemical_compoundsymbols.namesakeTrans configurationsymbolslcsh:QD901-999TetradiphosphenePiperidinelcsh:Crystallographyvan der Waals forceIUCrData
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1,1′-[(2,3,5,6-Tetramethyl-1,4-phenylene)bis(methylene)]dipiperidine

2018

The asymmetric unit of the title compound, C22H36N2, comprises one half-molecule, the other half being generated by a center of inversion. The piperidine ring adopts a chair conformation, with the exocyclic N—C bond in an equatorial orientation. A short intramolecular C—H...N hydrogen bond occurs and forms an S(6) motif. No directional interactions beyond van der Waals contacts are observed between the molecules, which form a wave-like supramolecular architecture.

crystal structurebiologyHydrogen bondpiperidine-substituted dureneCyclohexane conformationCrystal structure010402 general chemistry010403 inorganic & nuclear chemistrybiology.organism_classificationRing (chemistry)01 natural sciencesMedicinal chemistry0104 chemical sciencesintramolecular C—H...N hydrogen bondsymbols.namesakechemistry.chemical_compoundchemistrysymbolslcsh:QD901-999TetraPiperidinelcsh:Crystallographyvan der Waals forceEne reactionIUCrData
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Towards multi-concern software development with Everything-as-Code

2022

As software is becoming a central element in our lives, more and more stakeholders have concerns. Unlike today, when developers stop their coding activities to satisfy these stakeholder concerns, we propose dealing with them as part of the coding workflow, the central element of programmers’ daily duties. This can be achieved by extending the approach that we call Everything-as-Code (EaC) beyond software engineers and operators. peerReviewed

data modelssoftwareohjelmoijatohjelmistotuotantotask analysiscodessidosryhmätohjelmistokehitysdocumentationstakeholderspipelines
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CCDC 1825460: Experimental Crystal Structure Determination

2018

Related Article: Quentin Bonnin, Sook-Yen Wong, Cedric Balan, Virginie Comte, Raluca Malacea, Marie-Jose Penouilh, Philippe Richard, Gerald Kehr, Adrien T. Normand, Gerhard Erker, Pierre Le Gendre|2018|Eur.J.Inorg.Chem.|2018|3813|doi:10.1002/ejic.201800636

dichloro-cyclopentadienyl-((2266-tetramethylpiperidinylmethyl)-cyclopentadienyl)-titaniumSpace GroupCrystallographyCrystal SystemCrystal StructureCell ParametersExperimental 3D Coordinates
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CCDC 1825461: Experimental Crystal Structure Determination

2018

Related Article: Quentin Bonnin, Sook-Yen Wong, Cedric Balan, Virginie Comte, Raluca Malacea, Marie-Jose Penouilh, Philippe Richard, Gerald Kehr, Adrien T. Normand, Gerhard Erker, Pierre Le Gendre|2018|Eur.J.Inorg.Chem.|2018|3813|doi:10.1002/ejic.201800636

dichloro-cyclopentadienyl-((2266-tetramethylpiperidinylmethyl)-cyclopentadienyl)-zirconiumSpace GroupCrystallographyCrystal SystemCrystal StructureCell ParametersExperimental 3D Coordinates
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Is there light after depth? Distribution of periphyton chlorophyll and productivity in lake littoral zones

2014

Periphyton and phytoplankton contribute to the base of lake food webs, and both groups of microalgae are influenced by resources and physical forcing. Spatial variation in light availability interacts with the physical dynamics of the water column to create predictable depth gradients in resources and disturbance that may differentially affect periphyton vs phytoplankton. We characterized the depth distribution of chlorophyll and productivity of periphyton on sediments (epipelon) and phytoplankton in the euphotic zones of 13 oligomesotrophic lakes that span a large size gradient (0.017–32,600 km2 ). Epipelic chlorophyll usually increased with depth in the epilimnion. Light was the primary d…

disturbanceCNWisconsinmicrophytobenthosLake TanganyikaphytoplanktonepipelonNorth Temperate LakesLake Tahoelightfosforiperifyton
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