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1. Full Text Analyses of pig genomes provide insight into porcine demography and evolution
by Groenen, Martien A.M and Archibald, Alan L and Uenishi, Hirohide and Tuggle, Christopher K and Takeuchi, Yasuhiro and Rothschild, Max F and Rogel-Gaillard, Claire and Park, Chankyu and Milan, Denis and Megens, Hendrik-Jan and Li, Shengting and Larkin, Denis M and Kim, Heebal and Frantz, Laurent A.F and Caccamo, Mario and Ahn, Hyeonju and Aken, Bronwen L and Anselmo, Anna and Anthon, Christian and Auvil, Loretta and Badaoui, Bouabid and Beattie, Craig W and Bendixen, Christian and Berman, Daniel and Blecha, Frank and Blomberg, Jonas and Bolund, Lars and Bosse, Mirte and Botti, Sara and Bujie, Zhan and Bystrom, Megan and Capitanu, Boris and Carvalho-Silva, Denise and Chardon, Patrick and Chen, Celine and Cheng, Ryan and Choi, Sang-Haeng and Chow, William and Clark, Richard C and Clee, Christopher and Crooijmans, Richard P.M.A and Dawson, Harry D and Dehais, Patrice and De Sapio, Fioravante and Dibbits, Bert and Drou, Nizar and Du, Zhi-Qiang and Eversole, Kellye and Fadista, Joao and Fairley, Susan and Faraut, Thomas and Faulkner, Geoffrey J and Fowler, Katie E and Fredholm, Merete and Fritz, Eric and Gilbert, James G.R and Giuffra, Elisabetta and Gorodkin, Jan and Griffin, Darren K and Harrow, Jennifer L and Hayward, Alexander and Howe, Kerstin and Hu, Zhi-Liang and Humphray, Sean J and Hunt, Toby and Hornshoøj, Henrik and Jeon, Jin-Tae and Jern, Patric and Jones, Matthew and Jurka, Jerzy and Kanamori, Hiroyuki and Kapetanovic, Ronan and Kim, Jaebum and Kim, Jae-Hwan and Kim, Kyu-Won and Kim, Tae-Hun and Larson, Greger and Lee, Kyooyeol and Lee, Kyung-Tai and Leggett, Richard and Lewin, Harris A and Li, Yingrui and Liu, Wansheng and Loveland, Jane E and Lu, Yao and Lunney, Joan K and Ma, Jian and Madsen, Ole and Mann, Katherine and Matthews, Lucy and McLaren, Stuart and Morozumi, Takeya and Murtaugh, Michael P and Narayan, Jitendra and Nguyen, Dinh Truong and Ni, Peixiang and Oh, Song-Jung and Onteru, Suneel and Panitz, Frank and Park, Eung-Woo and ... and Medicinska fakulteten and Science for Life Laboratory, SciLifeLab and Fysiologi and Medicinska och farmaceutiska vetenskapsområdet and Institutionen för medicinsk biokemi och mikrobiologi and Klinisk virologi and Uppsala universitet and Institutionen för medicinska vetenskaper and Klinisk mikrobiologi och infektionsmedicin and Institutionen för neurovetenskap
Nature, ISSN 0028-0836, 11/2012, Volume 491, Issue 7424, pp. 393 - 398
For 10,000 years pigs and humans have shared a close and complex relationship. From domestication to modern breeding practices, humans have shaped the genomes... 
COMPLEX | GENE | VARIANTS | MULTIDISCIPLINARY SCIENCES | SEQUENCE | RECEPTOR | TASTE | LOCUS | SUS-SCROFA | Sus scrofa - genetics | Animals | Demography | Genome - genetics | Molecular Sequence Data | Models, Animal | Phylogeny | Sus scrofa - classification | Population Dynamics | Chromosome mapping | Genetic aspects | Genomes | Research | Identification and classification | Wild boar | Hogs | Genetics | Evolution | Genes | Genomics | Life Sciences | Animal biology | Biological Sciences | Biology with specialization in Evolutionary Functional Genomics | Lantbruksvetenskaper | Animal and Dairy Science | Agricultural Sciences | Biologi med inriktning mot evolutionär funktionsgenomik | Genetik | Naturvetenskap | Biologiska vetenskaper | Husdjursvetenskap | Biology with specialization in Evolutionary Genetics | Evolutionsbiologi | Biologi med inriktning mot evolutionär genetik | Natural Sciences | Evolutionary Biology
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2. Full Text Comparative landscape genetic analyses show a Belgian motorway to be a gene flow barrier for red deer (Cervus elaphus), but not wild boars (Sus scrofa)
by FRANTZ, A. C and BERTOUILLE, S and ELOY, M. C and LICOPPE, A and CHAUMONT, F and FLAMAND, M. C
Molecular Ecology, ISSN 0962-1083, 07/2012, Volume 21, Issue 14, pp. 3445 - 3457
While motorways are often assumed to influence the movement behaviour of large mammals, there are surprisingly few studies that show an influence of these... 
road ecology | population genetic structure | Bayesian clustering | red deer | wild boar | sample size effect | MULTILOCUS GENOTYPES | DISTANCE | NUMBER | BIOCHEMISTRY & MOLECULAR BIOLOGY | SOFTWARE | INDIVIDUALS | EUROPE | EVOLUTIONARY BIOLOGY | CLUSTERS | ASSIGNMENT | POPULATION-STRUCTURE | ECOLOGY | PROGRAM | Genetics, Population | Gene Flow | Male | Sus scrofa - genetics | Reproductive Isolation | Algorithms | Animals | Deer - genetics | Belgium | Environment | Female | Animals, Wild - genetics | Microsatellite Repeats | Cluster Analysis | Comparative studies | Cattle | Genes
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3. Full Text Worldwide Phylogeography of Wild Boar Reveals Multiple Centers of Pig Domestication
by Greger Larson and Keith Dobney and Umberto Albarella and Meiying Fang and Elizabeth Matisoo-Smith and Judith Robins and Stewart Lowden and Heather Finlayson and Tina Brand and Eske Willerslev and Peter Rowley-Conwy and Leif Andersson and Alan Cooper and Medicinska fakulteten and Medicinska och farmaceutiska vetenskapsområdet and Institutionen för medicinsk biokemi och mikrobiologi and Uppsala universitet
Science, ISSN 0036-8075, 3/2005, Volume 307, Issue 5715, pp. 1618 - 1621
Mitochondrial DNA (mtDNA) sequences from 686 wild and domestic pig specimens place the origin of wild boar in island Southeast Asia (ISEA), where they... 
Haplotypes | Animal genetics | Archaeological site recording | Swine | Animal domestication | Cattle | Wild boars | Phylogenetics | Reports | Mitochondrial DNA | Human genetics | ORIGINS | PHYLOGENIES | SULAWESI | MITOCHONDRIAL-DNA | GENETIC-EVIDENCE | MULTIDISCIPLINARY SCIENCES | Geography | Genetics, Population | Animals, Wild - classification | Markov Chains | Australasia | Europe | Time | Phylogeny | Sus scrofa - classification | Animals, Domestic - classification | Sequence Analysis, DNA | India | Sus scrofa - genetics | Animals | DNA, Mitochondrial - genetics | Animals, Domestic - genetics | Asia | Bayes Theorem | Animals, Wild - genetics | Monte Carlo Method | Research | History | Morphology (Animals) | Biology | Animals; Wild/classification/genetics | Genetics; Population | Sequence Analysis; DNA | Animals; Domestic/classification/genetics | Sus scrofa/classification/genetics | Research Support; Non-U.S. Gov't | DNA; Mitochondrial/genetics
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4. Full Text Genome-wide profiling of Sus scrofa circular RNAs across nine organs and three developmental stages
by Liang, Guoming and Yang, Yalan and Niu, Guanglin and Tang, Zhonglin and Li, Kui
DNA Research, ISSN 1340-2838, 10/2017, Volume 24, Issue 5, pp. 523 - 535
The spatio-temporal expression patterns of Circular RNA (circRNA) across organs and developmental stages are critical for its function and evolution analysis.... 
circRNAs | organs | profiling | skeletal muscle | pig | MEAT QUALITY | IDENTIFICATION | EXPRESSION PATTERNS | TIGHT JUNCTIONS | GENE | DATABASE | SEQUENCE | GENETICS & HEREDITY | MUTATIONS | REVEALS | RNA - physiology | Humans | Transcriptome | Male | MicroRNAs - metabolism | Organ Specificity | RNA - chemistry | Sus scrofa - growth & development | RNA - genetics | Sus scrofa - genetics | Animals | Sus scrofa - metabolism | Base Sequence | Conserved Sequence | Female | Mice | Databases, Nucleic Acid | RNA - metabolism | Full Papers
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5. Full Text Untangling the hybrid nature of modern pig genomes: a mosaic derived from biogeographically distinct and highly divergent Sus scrofa populations
by Bosse, M and Megens, H.J.W.C and Madsen, O and Frantz, L.A.F and Paudel, Y and Crooijmans, R.P.M.A and Groenen, M
Molecular Ecology, ISSN 0962-1083, 2014, Volume 23, Issue 16, pp. 4089 - 4102
The merging of populations after an extended period of isolation and divergence is a common phenomenon, in natural settings as well as due to human... 
identity by descent | hybridization | introgression | Sus scrofa | domestication | conservation genetics | RECOMBINATION | DOMESTIC PIG | BIOCHEMISTRY & MOLECULAR BIOLOGY | ANCIENT DNA | GENOTYPE DATA | EVOLUTIONARY BIOLOGY | WILD BOAR POPULATIONS | INBREEDING DEPRESSION | ECOLOGY | DIVERSITY | BALANCING SELECTION | ADAPTIVE INTROGRESSION | REVEALS | Genetic Variation | Haplotypes | Sus scrofa - genetics | Genetics, Population | Animals | Asia | Hybridization, Genetic | Europe | Phylogeny | Genome | Sequence Analysis, DNA | Genetic research | History | Swine | Analysis | Genomics | Biogeography | Hogs | Genetic diversity | Population genetics | Conservation Genetics | Domestication | Identity by descent | Hybridization | Introgression | domestic pig | genotype data | diversity | recombination | reveals | wild boar populations | ancient dna | inbreeding depression | adaptive introgression | balancing selection
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6. Full Text Phenotype and animal domestication: A study of dental variation between domestic, wild, captive, hybrid and insular Sus scrofa
by Evin, Allowen and Dobney, Keith and Schafberg, Renate and Owen, Joseph and Strand Vidarsdottir, Una and Larson, Greger and Cucchi, Thomas
BMC Evolutionary Biology, ISSN 1471-2148, 2015, Volume 15, Issue 1, pp. 6 - 6
Background: Identifying the phenotypic responses to domestication remains a long-standing and important question for researchers studying its early history.... 
Artificial selection | Biogeography | Geometric morphometrics | Molars | Teeth | Natural selection | BOAR | MOLAR SHAPE | BODY-SIZE | POPULATIONS | EVOLUTIONARY BIOLOGY | EVOLUTION | GENETICS & HEREDITY | SYSTEMATICS | PIG DOMESTICATION | MORPHOLOGY | MAMMALS | Genetic Variation | Sus scrofa - genetics | Sus scrofa - physiology | Phenotype | Animals | Hybridization, Genetic | Humans | Tooth - physiology | Tooth - anatomy & histology | Animals, Domestic | Evolution, Molecular | Domestication | Physiological aspects | Genetic aspects | Research | Wild boar | Animal culture | Evolution
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7. Full Text Inactivation of porcine endogenous retrovirus in pigs using CRISPR-Cas9
by Niu, Dong and Wei, Hong-Jiang and Lin, Lin and George, Haydy and Wang, Tao and Lee, I-Hsiu and Zhao, Hong-Ye and Wang, Yong and Kan, Yinan and Shrock, Ellen and Lesha, Emal and Wang, Gang and Luo, Yonglun and Qing, Yubo and Jiao, Deling and Zhao, Heng and Zhou, Xiaoyang and Wang, Shouqi and Wei, Hong and Güell, Marc and Church, George M and Yang, Luhan
Science, ISSN 0036-8075, 09/2017, Volume 357, Issue 6357, pp. 1303 - 1307
Xenotransplantation is a promising strategy to alleviate the shortage of organs for human transplantation. In addition to the concerns about pig-to-human... 
CELLS | INFECTION | GENOMES | PERVS | MULTIDISCIPLINARY SCIENCES | Sus scrofa - genetics | Animals | Humans | CRISPR-Cas Systems | HEK293 Cells | Transplantation, Heterologous - adverse effects | Retroviridae Infections - transmission | Endogenous Retroviruses - genetics | Gene Editing - methods | Sus scrofa - virology | Disease Transmission, Infectious - prevention & control | Retroviruses | Xenotransplantation | Patient outcomes | Genetic aspects | Genetic engineering | Health aspects | Methods | Pigs | CRISPR | Deactivation | Transplants & implants | Organs | Feasibility studies | Nuclear engineering | Transplants | Transplantation | Genomes | Inactivation | Tissues | Nuclear safety | Hogs | Horizontal transfer | Immunology | Somatic cell nuclear transfer | Safety engineering | Xenografts | Nuclear transfer | Endogenous retroviruses | Xenotrasplantament | Malalties transmissibles | Silenciament gènic
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8. Full Text The relationship between mitochondrial DNA haplotype and the reproductive capacity of domestic pigs (Sus scrofa domesticus)
by Tsai, Te-Sha and Rajasekar, Sriram and St. John, Justin C
BMC Genetics, ISSN 1471-2156, 05/2016, Volume 17, Issue 1, p. 67
Background: The maternally inherited mitochondrial genome encodes key proteins of the electron transfer chain, which produces the vast majority of cellular... 
HUMAN MTDNA | REPLICATION | GENETIC-PARAMETERS | LITTER SIZE | EMBRYONIC STEM-CELLS | GENETICS & HEREDITY | PREIMPLANTATION MEISHAN | LARGE WHITE | OVULATION RATE | TRAITS | SELECTION | Haplotypes | Sus scrofa - genetics | Oocytes - cytology | Sus scrofa - physiology | Animals | DNA, Mitochondrial - genetics | Embryonic Development - genetics | Litter Size - genetics | Reproduction - genetics | Female | Sus scrofa - embryology | Swine | Analysis | Mitochondrial DNA | Genetic aspects | Research | Biological diversity
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9. Full Text Use of the CRISPR/Cas9 system to produce genetically engineered pigs from in vitro-derived oocytes and embryos
by Whitworth, Kristin M and Lee, Kiho and Benne, Joshua A and Beaton, Benjamin P and Spate, Lee D and Murphy, Stephanie L and Samuel, Melissa S and Mao, Jiude and O'Gorman, Chad and Walters, Eric M and Murphy, Clifton N and Driver, John and Mileham, Alan and McLaren, David and Wells, Kevin D and Prather, Randall S
Biology of Reproduction, ISSN 0006-3363, 09/2014, Volume 91, Issue 3, p. 78
Targeted modification of the pig genome can be challenging. Recent applications of the CRISPR/Cas9 system hold promise for improving the efficacy of genome... 
Porcine/pig | Embryo | Genetic engineering | CRISPR/Cas9 | Somatic cell nuclear transfer | Blastocyst | KNOCKOUT PIGS | embryo | CAS SYSTEM | ZINC-FINGER NUCLEASES | genetic engineering | ONE-STEP GENERATION | somatic cell nuclear transfer | porcine/pig | IN-VITRO | REPRODUCTIVE BIOLOGY | RESPIRATORY SYNDROME VIRUS | PORCINE | GENE-EXPRESSION | blastocyst | CLONING EFFICIENCY | CLONED PIGS | Embryo Culture Techniques - veterinary | Sus scrofa - physiology | Genetic Engineering - veterinary | Nuclear Transfer Techniques - veterinary | Blastocyst - physiology | Male | Green Fluorescent Proteins - genetics | Receptors, Cell Surface - antagonists & inhibitors | Antigens, CD - genetics | Antigens, CD - metabolism | Sus scrofa - genetics | Embryo Transfer - veterinary | Gene Deletion | Antigens, CD1d - genetics | Female | In Vitro Oocyte Maturation Techniques - veterinary | Transgenes | Genetic Engineering - methods | Cell Line | Green Fluorescent Proteins - metabolism | Receptors, Cell Surface - metabolism | Antigens, CD1d - chemistry | Fertilization in Vitro - veterinary | Antigens, CD1d - metabolism | Antigens, Differentiation, Myelomonocytic - genetics | Embryo, Mammalian - physiology | Animals | Oocytes - physiology | Animals, Genetically Modified - genetics | Antigens, Differentiation, Myelomonocytic - metabolism | CRISPR-Cas Systems | Genetic Engineering - adverse effects | Animals, Genetically Modified - physiology | Mutation | Receptors, Cell Surface - genetics
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10. Full Text Genetic diversity in the mitochondrial DNA D-loop region of global swine (Sus scrofa) populations
by Zhang, Junxia and Jiao, Ting and Zhao, Shengguo
Biochemical and Biophysical Research Communications, ISSN 0006-291X, 05/2016, Volume 473, Issue 4, pp. 814 - 820
Increased global use of highly productive commercial breeds has reduced genetic diversity in indigenous breeds. It is necessary to protect local porcine... 
Mitochondrial DNA | Genetic diversity | Commercial pig | Indigenous pig | BIOPHYSICS | PIG BREEDS | BIOCHEMISTRY & MOLECULAR BIOLOGY | Sus scrofa - genetics | Animals | DNA, Mitochondrial - genetics | DNA Mutational Analysis | Base Sequence | Molecular Sequence Data | Polymorphism, Single Nucleotide - genetics | Genetic Variation - genetics | DNA, Mitochondrial - chemistry | Genetic research | Swine | Analysis | Biological diversity
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11. Full Text LncRNAnet: a comprehensive Sus scrofa lncRNA database
by Liang, G and Yang, Y and Li, H and Yu, H and Li, X and Tang, Z and Li, K
Animal Genetics, ISSN 0268-9146, 12/2018, Volume 49, Issue 6, pp. 632 - 635
Summary Long noncoding RNAs (lncRNAs) constitute a large class of functional non‐coding RNAs that play important roles in many biological processes. Thousands... 
tissue‐specific expression | expression profile | long non‐coding RNA | pig | tissue-specific expression | long non-coding RNA | AGRICULTURE, DAIRY & ANIMAL SCIENCE | LONG NONCODING RNAS | GENETICS & HEREDITY | IDENTIFICATION | Sus scrofa - genetics | User-Computer Interface | Animals | Humans | Mice | Polymorphism, Single Nucleotide | RNA, Long Noncoding - genetics | Quantitative Trait Loci | Databases, Nucleic Acid | Databases | Single nucleotide polymorphisms | RNA | Analysis | Conserved sequence | Transcription | Swine | Data bases | Biological activity
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12. Full Text Meat from wild boar (Sus scrofa L.): A review
by Sales, James and Kotrba, Radim
Meat Science, ISSN 0309-1740, 06/2013, Volume 94, Issue 2, pp. 187 - 201
Wild boar is a species that is utilised for food and sport hunting throughout the world. Recent increases in natural populations and the potential of farming... 
Products | Carcass quality | Chemical composition | Microbiology | Wild boar | Meat quality | DEER CERVUS-ELAPHUS | QUANTITATIVE-TRAIT LOCI | LARGE GAME ANIMALS | FOOD SCIENCE & TECHNOLOGY | LARGE WHITE INTERCROSS | SIMILAR CROSSBREEDS 2N=37 | INDIGENOUS WATTLE PIGS | POLYUNSATURATED FATTY-ACIDS | QUALITY TRAITS | MUSCLE-FIBER TRAITS | DIETARY VITAMIN-E | Body Composition | Sus scrofa - genetics | Animals | Meat - standards | Swine - genetics | Meat - analysis | Tocopherols | Hunting | Fatty acids | Meat
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