00926nam0-22003251i-450-99000112692040332120060120125203.0000112692FED01000112692(Aleph)000112692FED0100011269220001205d1972----km-y0itay50------baengRegression and the Moore-Penrose PseudoinverseArthur AlbertNew York [etc.]Academic Press1972xiii, 180 p.24 cmMathematics in science and engineering94ProbabilitàStatistica519Albert,Arthur E.104053ITUNINARICAUNIMARCBK990001126920403321C-26-(9413270MA118-23517068FI1MA1FI1Regression and the Moore-Penrose Pseudoinverse345034UNINA02566nam 2200409 n 450 99638622350331620221108063307.0(CKB)1000000000618568(EEBO)2240908786(UnM)99846899(EXLCZ)99100000000061856819911112d1622 uy |engurbn||||a|bb|A declaration of the state of the colony and affaires in Virginia[electronic resource] With a relation of the barbarous massacre in the time of peace and league, treacherously executed by the natiue infidels vpon the English, the 22 of March last. Together with the names of those that were then massacred; that their lawfull heyres, by this notice giuen, may take order for the inheriting of their lands and estates in Virginia. And a treatise annexed, written by that learned mathematician Mr. Henry Briggs, of the Northwest passage to the South Sea through the continent of Virginia, and by Fretum Hudson. Also a commemoration of such worthy benefactors as haue contributed their Christian charitie towards the aduancement of the colony. And a note of the charges of necessary prouisions fit for euery man that intends to goe to Virginia. Published by authoritieImprinted at London By G. Eld, for Robert Mylbourne, and are to be sold at his shop, at the great south doore of Pauls1622[8], 54, [2], folded leafDedication signed: Edvvard Waterhouse.The first leaf contains two woodcut seals; the last leaf is blank.The folded leaf is "The inconveniencies that have happened to some persons which have transported themselves from England to Virginia ..", probably issued by the Virginia Company of London, also separately issued as STC 24844.Reproduction of a photostat of the original in the Henry E. Huntington Library and Art Gallery.eebo-0113VirginiaHistoryColonial period, ca. 1600-1775Early works to 1800VirginiaDescription and travelEarly works to 1800Northwest PassageEarly works to 1800Waterhouse Edwardcolonist.1020289Briggs Henry1561-1630.1003540Virginia Company of London.Cu-RivESCu-RivESUk-ESCStRLINWaOLNBOOK996386223503316A declaration of the state of the colony and affaires in Virginia2410924UNISA05019nam 2200469z- 450 991034674320332120210211(CKB)4920000000094282(oapen)https://directory.doabooks.org/handle/20.500.12854/46249(oapen)doab46249(EXLCZ)99492000000009428220202102d2018 |y 0engurmn|---annantxtrdacontentcrdamediacrrdacarrierEmerging Approaches for Typing, Detection, Characterization, and Traceback of Escherichia coli, 2nd EditionFrontiers Media SA20181 online resource (172 p.)Frontiers Research Topics2-88945-433-9 Pathogenic Escherichia coli strains cause a large number of diseases in humans, including diarrhea, hemorrhagic colitis, hemolytic uremic syndrome, urinary tract infections, and neonatal meningitis, while in animals they cause diseases such as calf scours and mastitis in cattle, post-weaning diarrhea and edema disease in pigs, and peritonitis and airsacculitis in chickens. The different E. coli pathotypes are characterized by the presence of specific sets of virulence-related genes. Therefore, it is not surprising that pathogenic E. coli constitutes a genetically heterogeneous family of bacteria, and they are continuing to evolve. Rapid and accurate molecular methods are critically needed to detect and trace pathogenic E. coli in food and animals. They are also needed for epidemiological investigations to enhance food safety, as well as animal and human health and to minimize the size and geographical extent of outbreaks. The serotype of E. coli strains has traditionally been determined using antisera raised against the >180 different O- (somatic) and 53 H- (flagellar) antigens. However, there are many problems associated with serotyping, including: it is labor-intensive and time consuming; cross reactivity of the antisera with different serogroups occurs; antisera are available only in specialized laboratories; and many strains are non-typeable. Molecular serotyping targeting O-group-specific genes within the E. coli O-antigen gene clusters and genes that are involved in encoding for the different flagellar types offers an improved approach for determining the E. coliO- and H-groups. Furthermore, molecular serotyping can be coupled with determination of specific sets of virulence genes carried by the strain offering the possibility to determine O-group, pathotype, and the pathogenic potential simultaneously. Sequencing of the O-antigen gene clusters of all of the known O-groups of E. coli is now complete, and the sequences have been deposited in the GenBank database. The sequence information has revealed that some E. coli serogroups have identical sequences while others have point mutations or insertion sequences and type as different serogroups in serological reactions. There are also a number of other ambiguities in serotyping that need to be resolved. Furthermore, new E. coli O-groups are being identified. Therefore, there is an essential need to resolve these issues and to revise the E. coli serotype nomenclature based on these findings. There are emerging technologies that can potentially be applied for molecular serotyping and detection and characterization of E. coli. On a related topic, the genome sequence of thousands of E. coli strains have been deposited in GenBank, and this information is revealing unique markers such as CRISPR (clustered regularly interspaced short palindromic repeats) and virulence gene markers that could be used to identify E. coli pathotypes. Whole genome sequencing now provides the opportunity to study the role of horizontal gene transfer in the evolution and emergence of pathogenic E. coli strains. Whole genome sequencing approaches are being investigated for genotyping and outbreak investigation for regulatory and public health needs; however, there is a need for establishing bioinformatics pipelines able to handle large amounts of data as we move toward the use of genetic approaches for non-culture-based detection and characterization of E. coli and for outbreak investigations.Microbiology (non-medical)bicsscdetectionE. coli characterizationGenetic MarkersMolecular serotypingoutbreak investigationpathogenic E. coliShiga toxin-producing E. colisubtypingvirulence geneswhole genome sequencingMicrobiology (non-medical)David S. Needlemanauth1292354Pina M. FratamicoauthChitrita DebRoyauthBOOK9910346743203321Emerging Approaches for Typing, Detection, Characterization, and Traceback of Escherichia coli, 2nd Edition3022206UNINA