Catnip (Link Bibliography)

“Catnip” links:

  1. Cat-Sense

  2. 1987-tucker.pdf

  3. 1942-mcelvain.pdf

  4. 1962-todd.pdf: ⁠, Neil B. Todd (1962; cat  /​ ​​ ​catnip):

    Four behavioral components of the catnip response are described briefly. The analysis of a pedigree indicates that responding is inherited as an autosomal dominant. Other aspects of inheritance of the catnip response are discussed.

    An essential oil, was isolated from the catnip plant (Nepeta cataria) by McElvain et al. 2, 3, 4 and Meinwald 5. McElvain2 demonstrated with lions that the oil is the substance which is responsible for the attraction of to the plant and the only constituent capable of inducing a response. This familiar response has been broken down into four components, viz, 1. sniffing, 2. licking and chewing with head shaking, 3. chin and cheek rubbing and 4. head-over roll and body rubbing. None of these automatisms is unique to catnip, each of them apparently belonging normally to sexual or ingestive behavior1. These components almost invariably appear in the above sequence. In fact, among 58 responding cats, all tested with dried leaves, only 3 individuals deviated from this sequence and omitted the licking and chewing with head shaking. These animals went immediately into the rolling phase, which seemed to be exceptionally violent. Component four may last from three to six minutes before all response is extinguished. Additional behavior patterns noted occasionally are claw sharpening and washing, both of which occur as displacement activities in the ethological sense in sexual behavior1.

    Among responding animals the response may occasionally be inhibited for obscure reasons, necessitating repeated testing of non-responders before drawing conclusions. Also, the response is not manifested in kittens under 6 to 8 weeks of age and may not develop fully until three months of age. In fact, catnip often produces a distinct avoidance response in young kittens which is gradually replaced by indifference in non-responders and by heightened curiosity in responders. Whether nursing is in any way connected with inhibiting the response has not yet been determined. In one case a 6- to 7-week-old nursing kitten gave a total response, but this seems exceptional. A distressed or enraged animal may still respond, and neutering appears to have no effect on behavior towards catnip.

  5. #breeding-cats-to-increase-frequency-of-catnip-response

  6. 1963-todd.pdf: “The Catnip Response”⁠, Neil Bowman Todd

  7. 1963-bates.pdf: “Terpenoids. Cis-trans-Nepetalactones and trans-cis-Nepetalactones”⁠, R. B. Bates, C. W. Sigel

  8. 1963-konecny.pdf: ⁠, Michael John Konecny (1963; cat  /​ ​​ ​catnip):

    Feral house cats (Felis catus) were studied at two sites in the Galapagos Islands. Visual observations, fecal collections, and radio telemetry data were gathered to elucidate their ecology and social organization. 68% of all cats trapped were adults; the adult sex ratio was 2.62 males per female. The density of adult cats at both sites was approximately two cats per square kilometer, although the habitat at each site differed in structure and quality.

    Transect analyses revealed that there were temporal fluctuations in prey abundance, while the numbers consumed were often different. There were seasonal differences in diet breadth; the diet was broader in the dry season. A posteriori attempts to determine prey preferences indicated that rats, small birds, lava lizards, and grasshoppers were consumed most frequently. A comparison of estimated daily energy intake and daily energy requirements for males and females indicated that males and pregnant and lactating females probably face energy stresses. The energy stress on pregnant and lactating females may be severe, contributing to their apparent greater mortality.

    The plotted movements of radio-collared cats revealed large differences in home range size between sexes and sites. At Cerro Colorado the home ranges were larger and more overlapping than those at Tagus Cove. In the qualitatively richer habitat of Cerro Colorado locations were concentrated near the coast, while those at Tagus Cove were more diffuse. Plots of daily movements revealed that foraging paths at Cerro Colorado crisscrossed frequently, while paths were essentially straight at Tagus Cove. The activity cycle was bimodally crepuscular with the lowest activity in the early afternoon.

    Little aggression was seen during dominance interactions at Cerro Colorado, while no interactions were observed at Tagus Cove. From all the collected data it was hypothesized that feral cats are solitary, opportunistic predators with broad diets. Differences in habitat quality between sites resulted in different social organizations, with a dominance hierarchy at Cerro Colorado and olfactory-mediated territoriality at Tagus Cove.

  9. 1966-palen.pdf

  10. 1968-hayashi.pdf

  11. 1968-hayashi-2.pdf

  12. 1969-waller.pdf

  13. 1972-hatch.pdf

  14. https://books.google.com/books?id=IETMd3-lSlkC&lpg=PA378&vq=todd&pg=PA244

  15. 1974-harney.pdf: “Behavioral activity of catnip and its constituents: nepetalic acid and nepetalactone”⁠, John W. Harney, John D. Leary, Ivan B. Barofsky

  16. 1978-harney.pdf

  17. 1976-hill.pdf

  18. 1977-hart.pdf: “Olfaction and feline behaviour”⁠, Benjamin L. Hart

  19. https://repository.si.edu/bitstream/handle/10088/5889/00282.pdf

  20. 1980-vanaarde.pdf

  21. 1980-vanaarde-2.pdf

  22. 2002-bester.pdf

  23. https://www.tandfonline.com/doi/pdf/10.1080/00021369.1988.10869045

  24. 1971-todd.pdf

  25. 1974-dreux.pdf: “The cat population of Péninsule Courbet, ȋles Kerguelen: an example of the founder effect”⁠, Ph. Dreux

  26. http://www7.inra.fr/dpenv/pascac23.htm

  27. 2004-pontier.pdf

  28. 1992-deluca.pdf

  29. http://digitalcommons.unl.edu/cgi/viewcontent.cgi?article=1024&context=vpc15

  30. http://www.doc.govt.nz/Documents/science-and-technical/SR54.pdf

  31. 1994-clapperton.pdf

  32. 1997-harrison.pdf

  33. 1997-edwards.pdf: ⁠, G. P. Edwards, K. C. Piddington, R. M. Paltridge (1997; cat  /​ ​​ ​catnip):

    Field trials were conducted in central Australia to evaluate the ability of various olfactory lures to attract feral cats (Felis catus L.).

    Ten food-based lures, one plant extract and two scent-based lures (anal-gland preparations from male and female cats) were evaluated on the basis of visitation rates and elicited behavioural responses. A visual lure composed of bird feathers was also tested in conjunction with the scent-based lures.

    One food-based lure (sun-rendered prawn) and both of the scent-based lures were found to attract feral cats. The visual lure did not enhance the attractiveness of the scent-based lures.

    The possible uses and relative advantages of these lures in control programmes and in ecological studies of cats are discussed.

  34. http://www.fs.fed.us/rm/pubs_journals/2000/rmrs_2000_mcdaniel_g001.pdf

  35. http://www.southwestnrm.org.au/sites/default/files/uploads/ihub/molsher-rl-2001-trapping-and-demographics-feral-cats-felis-catus-central.pdf

  36. 2002-short.pdf

  37. 2004-wells.pdf

  38. https://www.wcscanada.org/portals/42/media/file/WSB_Ocelot.pdf

  39. http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.486142

  40. 2010-ellis.pdf

  41. https://pubmed.ncbi.nlm.nih.gov/8588288

  42. 2010-bernardi.pdf

  43. 2006-schmidt.pdf

  44. 2013-davoli.pdf: “Hair snaring and molecular genetic identification for reconstructing the spatial structure of Eurasian lynx populations”⁠, Francesca Davoli, Krzysztof Schmidt, Rafał Kowalczyk, Ettore Randi

  45. 2007-downey.pdf

  46. 2007-long.pdf

  47. 2008-castroarellano.pdf

  48. 2011-resende.pdf

  49. http://scholarworks.sfasu.edu/cgi/viewcontent.cgi?article=1287&context=forestry

  50. http://uknowledge.uky.edu/cgi/viewcontent.cgi?article=1009&context=forestry_etds

  51. 2013-hanke.pdf: “Sniffing out the stakes: hair-snares for wild cats in arid environments”⁠, Petra U. Hanke, Christopher R. Dickman

  52. http://www.agriculture.gov.au/cats-dogs/frequently-asked-questions

  53. http://www.agriculture.gov.au/cats-dogs/step-by-step-guides/category-3-step-by-step-guide-for-cats

  54. http://www.scielo.br/scielo.php?script=sci_arttext&pid=S1984-46702013000100006

  55. 2013-portella-table-catnipresponsebyfelidspecies.jpg

  56. http://research-repository.uwa.edu.au/files/11790041/Flematti_MS.pdf

  57. https://www.ncbi.nlm.nih.gov/books/NBK200978/

  58. 2015-patko.pdf

  59. 2016-patko.pdf

  60. 2017-crowley.pdf: “An assessment of the efficacy of rub stations for detection and abundance surveys of Canada lynx (Lynx canadensis)”⁠, Mr. Shannon M. Crowley, Mr. Dexter P. Hodder

  61. 2017-shreve.pdf: “Social interaction, food, scent or toys? A formal assessment of domestic pet and shelter cat (Felis silvestris catus) preferences”⁠, Kristyn R. Vitale Shreve, Lindsay R. Mehrkam, Monique A. R. Udell

  62. ⁠, Sebastiaan Bol, Jana Caspers, Lauren Buckingham, Gail Denise Anderson-Shelton, Carrie Ridgway, C. A. Tony Buffington, Stefan Schulz, Evelien M. Bunnik (2017-03-16; cat  /​ ​​ ​catnip⁠, cat  /​ ​​ ​silvervine⁠, cat  /​ ​​ ​tartarian-honeysuckle⁠, cat  /​ ​​ ​valerian):

    Background: Olfactory stimulation is an often overlooked method of environmental enrichment for cats in captivity. The best known example of olfactory enrichment is the use of catnip, a plant that can cause an apparently euphoric reaction in domestic cats and most of the Pantherinae. It has long been known that some domestic cats and most tigers do not respond to catnip. Although many anecdotes exist of other plants with similar effects, data are lacking about the number of cats that respond to these plants, and if cats that do not respond to catnip respond to any of them. Furthermore, much is still unknown about which chemicals in these plants cause this response.

    Methods: We tested catnip, silver vine, Tatarian honeysuckle and root on 100 domestic cats and observed their response. Each cat was offered all four plant materials and a control, multiple times. Catnip and silver vine also were offered to nine tigers. The plant materials were analyzed by gas chromatography coupled with mass spectrometry to quantify concentrations of compounds believed to exert stimulating effects on cats.

    Results: Nearly all domestic cats responded positively to olfactory enrichment. In agreement with previous studies, one out of every three cats did not respond to catnip. Almost 80% of the domestic cats responded to silver vine and about 50% to Tatarian honeysuckle and valerian root. Although cats predominantly responded to fruit galls of the silver vine plant, some also responded positively to its wood. Of the cats that did not respond to catnip, almost 75% did respond to silver vine and about one out of three to Tatarian honeysuckle. Unlike domestic cats, tigers were either not interested in silver vine or responded disapprovingly. The amount of nepetalactone was highest in catnip and only present at marginal levels in the other plants. Silver vine contained the highest concentrations of all other compounds tested.

    Conclusions: Olfactory enrichment for cats may have great potential. Silver vine powder from dried fruit galls and catnip were most popular among domestic cats. Silver vine and Tatarian honeysuckle appear to be good alternatives to catnip for domestic cats that do not respond to catnip.

  63. https://static-content.springer.com/esm/art%3A10.1186%2Fs12917-017-0987-6/MediaObjects/12917_2017_987_MOESM2_ESM.xlsx

  64. 2017-bol-cats.csv

  65. 2017-bol-tigersbobcats.csv

  66. 2017-espiniturbe.pdf: ⁠, Luz Teresa Espín-Iturbe, Bernardo A. López Yañez, Apolo Carrasco García, Rodolfo Canseco-Sedano, Maribel Vázquez-Hernández, Genaro A. Coria-Avila (2017-09-01; cat  /​ ​​ ​catnip):

    • Only 2⁄3 of adult cats are believed to respond to catnip (Nepeta cataria).
    • Responsiveness is mainly based on “active” behaviors, such as rolling over.
    • Herein we assessed active and passive responses in cats of different age, sex, and gonadal status.
    • Few cats responded actively, but almost 100% did it passively (sphinx-like posture).
    • We discuss brain maturation as the cause to catnip response.

    Catnip (Nepeta cataria) is a popular plant among cat owners because in about 60% of felids elicits active behaviors such as rolling over, grooming, motor activity and vocalizations. Herein, we assessed the display of active but also passive responses, such as time in sphinx-like position, and consequently hypothesized that 100% of cats respond to catnip.

    Accordingly, 60 domestic cats of different age (infant, juvenile, adults), sex (males, females) and gonadal status (early ⁠, gonadally intact) were placed in a cylindrical chamber (1.20 × 1.40 m) during 5 min and then exposed to 500 mg of dehydrated catnip for another 5 min. Behaviors were video-recorded and scored.

    Results indicated that about 20% of the cats (adults and juvenile only) displayed active behaviors (ie. rolling over), whereas 80% displayed passive responses at any age (sphinx-like position, decreased frequency in vocalizations, and decreased motor activity). These results suggest that all cats respond to catnip but they express it actively, passively or with a combination of both types of responses, which mainly depends on age and sex, and early gonadectomy to a much less extent.

    We discuss the possible implications of brain maturation on this dichotomy and speculate on the role of opioidergic system on the catnip responses.

    [Keywords: Nepeta cataria, catnip, domestic cat, gonadectomy, age, ]

  67. http://www.jarvm.com/articles/Vol16Iss1/Vol16%20Iss1%20Beck.pdf

  68. 2018-cannas.pdf: “COPSINGOLEVET_Layout 1⁠, fulvio

  69. Regression

  70. http://aceci.org/documents/Repellent_activity_of_Catmint_against_Afro-Tropical_Mosquitoes_2011.pdf

  71. 2019-sharma.pdf: “Pharmacology and Toxicology of Nepeta cataria (Catmint) Species of Genus Nepeta: A Review”⁠, Ajay Sharma, G. A. Nayik, Damanjit Singh Cannoo

  72. http://www.diva-portal.org/smash/get/diva2:1322271/FULLTEXT01.pdf

  73. 2011-villani.pdf: ⁠, Natalie Adele Villani (2011; cat  /​ ​​ ​catnip):

    The domestic cat response to catnip is unique in nature as it represents a repeatable, recognizable behavioral response to an olfactory stimulus that appears to have little evolutionary importance. There is clear variation in response between cats and this has been attributed to genetic factors in the past. These factors are explored in this study using behavioral observation after presenting of catnip to cats in two different research colonies with different environmental and genetic backgrounds. The response trait is defined and methods are used to explore a for the trait to determine genetic effects. Heritabilities obtained in the two colonies for the most important response behaviors, the head over roll and cheek rub, were 0.511 and 0.794 using catnip spray and dried catnip respectively. No clear Mendelian mode of inheritance was ascertained in either colony. The variation in response behaviors and intensity seen in the two colonies reflects the complex nature of expression of the catnip response, but there is a clear genetic influence on the feline predisposition to responding.

  74. http://www.avmf.org/clientuploads/documents/News%20Articles/Cat%20Health%20Network%20Feline%20SNP%20Chip%20Studies%20-%20Final%20Accomplishments%20MAFFINAL%2005-23-13.pdf#page=5

  75. http://www.arthurleej.com/HerbalScraps.pdf

  76. Catnip

  77. Catnip-survey

  78. ⁠, Adrian Scaffidi, Dave Algar, Björn Bohman, Emilio L. Ghisalberti1, Gavin Flematti (2016):

    Acalypha indica is a herb that grows throughout the tropical regions of the world. As well as being exploited for medicinal use, the roots of this plant are known to elicit a drug-like effect on cats. Recent research into feral cat control on Christmas Island has investigated whether a preparation of the roots of A. indica might be effective in traps to attract feral cats. However, the volatile nature of the attractants made it unviable for use in traps for more than a few days. In this study we investigated the volatile components emitted by the plant roots and identified two iridoid compounds, (4R,4aR,7S,7aR)-isodihydronepetalactone and (4R,4aS,7S,7aR)-isoiridomyrmecin, which are known to affect behavioural activity in cats. Synthesis of standards confirmed the stereochemistry of both compounds emitted by the plant. Potential application for these compounds in feral cat control is discussed.

  79. #bol-et-al-2017

  80. http://messybeast.com/catnip-valerian.htm

  81. 1983-bicchi.pdf

  82. https://www.jstage.jst.go.jp/article/tjem1920/115/2/115_2_137/_pdf

  83. 1993-katahira.pdf

  84. 1998-shoyama.pdf

  85. https://www.jstage.jst.go.jp/article/nikkashi1948/81/8/81_8_1320/_pdf

  86. https://www.jstage.jst.go.jp/article/nikkashi1948/90/6/90_6_507/_pdf

  87. https://books.google.com/books?id=p7owAQAAMAAJ

  88. 2012-abramson.pdf: “The Use of Silver Vine (Actinidia Polygama Maxim, Family Actinidiaceae) as an Enrichment Aid for Felines: Issues and Prospects”⁠, Charles I. Abramson, Timothy J. Bowser, Christopher A. Varnon, Robert M. Kerr

  89. https://www.amazon.com/Catnip-Pet-MasterMind-Premium-Natural/dp/B016R4EBKW/

  90. https://www.amazon.com/dp/B000788TP8/

  91. https://www.amazon.com/dp/B002H2VYNG/

  92. https://www.vitacost.com/natures-answer-valerian-root-alcohol-free-1-fl-oz

  93. https://www.amazon.com/dp/B008PNNMHW/

  94. https://www.amazon.com/Vitakraft-Playful-Silvervine-Refills-5-Pack/dp/B00MHTYRQU

  95. https://www.amazon.com/Titone-Organic-Extra-Virgin-Novello/dp/B018SZ84OM/

  96. https://www.newyorker.com/magazine/2007/08/13/slippery-business

  97. https://www.amazon.com/Large-Olive-Wood-Blanks-Bethlehem/dp/B00MYHBBW8

  98. http://companionplants.com/catalog/product_info.php?products_id=392

  99. catnip-2018-07-05-catnip-catthyme-planter-front.jpg

  100. catnip-2018-07-05-catnip-catthyme-planter-side.jpg

  101. catnip-2018-07-05-catnip-catthyme-planter-top.jpg

  102. https://www.amazon.com/Go-Cat-Catcher-Teaser-Mouse/dp/B000LPOUNW/

  103. https://www.amazon.com/ColorPet-Replacement-Feathers-Interactive-Assorted/dp/B0144LUQYK/

  104. https://www.instructables.com/id/DIY-Kitty-Crack%3a--ultra-potent-catnip-extract/?ALLSTEPS

  105. https://news.ycombinator.com/item?id=18679200

  106. http://felinegenetics.missouri.edu/99lives

  107. http://felinegenetics.missouri.edu/99lives/successfully-sequenced-cats

  108. https://www.wired.com/story/scientists-need-more-cat-dna-and-lil-bub-is-here-to-help/

  109. ⁠, Mike Bridavsky, Heiner Kuhl, Arthur Woodruff, Uwe Kornak, Bernd Timmermann, Norbert Mages, 99 Lives Consortium, Darío G. Lupiáñez, Orsolya Symmons, Daniel M. Ibrahim (2019-02-22):

    Rare diseases and their underlying molecular causes are often poorly studied, posing challenges for patient diagnosis and prognosis. The development of next-generation sequencing and its decreasing costs promises to alleviate such issues by supplying personal genomic information at a moderate price. Here, we used crowdfunding as an alternative funding source to sequence the genome of Lil BUB, a celebrity cat affected by rare disease phenotypes characterized by supernumerary digits, osteopetrosis and dwarfism, all phenotypic traits that also occur in human patients. We discovered that Lil BUB is affected by two distinct mutations: a mutation in the limb enhancer of the Sonic hedgehog gene, previously associated with polydactyly in Hemingway cats; and a novel frameshift deletion affecting the TNFRSF11A (RANK) gene, which has been linked to osteopetrosis in humans. We communicated the progress of this project to a large online audience, detailing the ‘inner workings’ of personalized whole genome sequencing with the aim of improving genetic literacy. Our results highlight the importance of genomic analysis in the identification of disease-causing mutations and support crowdfunding as a means to fund low-budget projects and as a platform for scientific communication.

  110. 2009-lyons.pdf

  111. ⁠, Lyons, Leslie A (2010):

    DNA testing for domestic cat diseases and appearance traits is a rapidly growing asset for veterinary medicine. Approximately 33 genes contain 50 mutations that cause feline health problems or alterations in the cat’s appearance. A variety of commercial laboratories can now perform cat genetic diagnostics, allowing both the veterinary clinician and the private owner to obtain DNA test results. DNA is easily obtained from a cat via a buccal swab with a standard cotton bud or cytological brush, allowing DNA samples to be easily sent to any laboratory in the world. The DNA test results identify carriers of the traits, predict the incidence of traits from breeding programs, and influence medical prognoses and treatments. An overall goal of identifying these genetic mutations is the correction of the defect via gene therapies and therapies. Thus, genetic testing is an effective preventative medicine and a potential ultimate cure. However, genetic diagnostic tests may still be novel for many veterinary practitioners and their application in the clinical setting needs to have the same scrutiny as any other diagnostic procedure. This article will review the genetic tests for the domestic cat, potential sources of error for genetic testing, and the pros and cons of DNA results in veterinary medicine. Highlighted are genetic tests specific to the individual cat, which are a part of the cat’s internal genome.

  112. ⁠, Lyons, Leslie A (2012):

    Varieties of genetic tests are currently available for the domestic cat that support veterinary health care, breed management, species identification, and forensic investigations. Approximately thirty-five genes contain over fifty mutations that cause feline health problems or alterations in the cat’s appearance. Specific genes, such as sweet and drug receptors, have been knocked-out of Felidae during evolution and can be used along with mtDNA markers for species identification. Both STR and SNP panels differentiate cat race, breed, and individual identity, as well as gender-specific markers to determine sex of an individual. Cat genetic tests are common offerings for commercial laboratories, allowing both the veterinary clinician and the private owner to obtain DNA test results. This article will review the genetic tests for the domestic cat, and their various applications in different fields of science. Highlighted are genetic tests specific to the individual cat, which are a part of the cat’s genome.

  113. http://www.vgl.ucdavis.edu/services/cat/index.php

  114. https://www.langfordvets.co.uk/media/1161/cat-genetic-price-list-2019-20.pdf

  115. http://www.catdnatest.org/

  116. http://felinegenetics.missouri.edu/feline-genome-project-2/cat-genomic-resources-strs-snps

  117. http://www.morrisanimalfoundation.org/assets/pdfs/spa/snp-chips-general-info.pdf

  118. http://www.ihh.kvl.dk/htm/kc/popgen/genetics/3/2.htm

  119. http://www.bio.miami.edu/dana/dox/recessivehomozygote.html

  120. http://nitro.biosci.arizona.edu/zbook/NewVolume_2/pdf/Chapter05.pdf

  121. ⁠, Milla Salonen, Katariina Vapalahti, Katriina Tiira, Asko Mäki-Tanila, Hannes Lohi (2019-05-28):

    Cat domestication and selective breeding have resulted in tens of breeds with major morphological differences. These breeds may also show distinctive behaviour differences; which, however, have been poorly studied. To improve the understanding of feline behaviour, we examined whether behavioural differences exist among cat breeds and whether behaviour is heritable. For these aims, we utilized our extensive health and behaviour questionnaire directed to cat owners and collected a survey data of 5726 cats. Firstly, for studying breed differences, we utilized models with multiple environmental factors and discovered behaviour differences in 19 breeds and breed groups in ten different behaviour traits. Secondly, the studied cat breeds grouped into four clusters, with the Turkish Van and Angora cats alone forming one of them. These findings indicate that cat breeds have diverged not only morphologically but also behaviourally. Thirdly, we estimated heritability in three breeds and obtained moderate heritability estimates in seven studied traits, varying from 0.4 to 0.53, as well as phenotypic and for several trait pairs. Our results show that it is possible to partition the observed variation in behaviour traits into genetic and environmental components, and that substantial genetic variation exists within breed populations.