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Ionised gas kinematics provide crucial evidence of the impact that active galactic nuclei (AGN) have in regulating star formation in their host galaxies. Although the presence of outflows in AGN host galaxies has been firmly established, the calculation of outflow properties such as mass outflow rates and kinetic energy remains challenging. We present the [OIII]5007 ionised gas outflow properties of 22 z$, Comment: Main paper: 20 pages, 15 figures, 3 tables. Accepted for publication in MNRAS

Context. Precise measurements of black hole masses are essential to understanding the coevolution of these sources and their host galaxies. Aims. We develop a novel approach for computing black hole virial masses using measurements of continuum luminosities and emission line widths from partially overlapping, narrow-band observations of quasars; we refer to this technique as single-epoch photometry. Methods. This novel method relies on forward-modelling quasar observations for estimating emission line widths, which enables unbiased measurements even for lines coarsely resolved by narrow-band data. We assess the performance of this technique using quasars from the Sloan Digital Sky Survey (SDSS) observed by the miniJPAS survey, a proof-of-concept project of the Javalambre Physics of the Accelerating Universe Astrophysical Survey (J-PAS) collaboration covering ≃1 deg2 of the northern sky using the 56 J-PAS narrow-band filters. Results. We find remarkable agreement between black hole masses from single-epoch SDSS spectra and single-epoch miniJPAS photometry, with no systematic difference between these and a scatter ranging from 0.4 to 0.07 dex for masses from log(MBH)≃8 to 9.75, respectively. Reverberation mapping studies show that single-epoch masses present approximately 0.4 dex precision, letting us conclude that our novel technique delivers black hole masses with only mildly lower precision than single-epoch spectroscopy. Conclusions. The J-PAS survey will soon start observing thousands of square degrees without any source preselection other than the photometric depth in the detection band, and thus single-epoch photometry has the potential to provide details on the physical properties of quasar populations that do not satisfy the preselection criteria of previous spectroscopic surveys. © ESO 2022., This work uses observations made with the JST/T250 telescope and PathFinder camera for the miniJPAS project at the Observatorio Astrofísico de Javalambre (OAJ) in Teruel, which is owned, managed, and operated by the Centro de Estudios de Física del Cosmos de Aragón (CEFCA). This work made use of the following python packages: ASTROPY (Astropy Collaboration 2013, 2018), EMCEE (Foreman-Mackey et al. 2013), IPYTHON (Perez & Granger 2007), MATPLOTLIB (Hunter 2007), MPI4PY (Dalcín et al. 2005, 2008; Dalcin et al. 2011; Dalcin & Fang 2021), NUMPY (Harris et al. 2020), PYDOE2 (Rickard & Daniel 2018), and SCIPY (Virtanen et al. 2020). We acknowledge the OAJ Data Processing and Archiving Unit (UPAD) for reducing and calibrating miniJPAS data and the use of the Atlas EDR cluster at the Donostia International Physics Center (DIPC). Funding for the J-PAS Project has been provided by the Governments of Spain and Aragón through the Fondo de Inversión de Teruel, European FEDER funding and the Spanish Ministry of Science, Innovation and Universities, and by the Brazilian agencies FINEP, FAPESP, FAPERJ and by the National Observatory of Brazil. Additional funding was also provided by the Tartu Observatory and by the J-PAS Chinese Astronomical Consortium. Funding for OAJ, UPAD, and CEFCA has been provided by the Governments of Spain and Aragón through the Fondo de Inversiones de Teruel; the Aragón Government through the Research Groups E96, E103, and E16_17R; the Spanish Ministry of Science, Innovation and Universities (MCIU/AEI/FEDER, UE) with grant PGC2018-097585-B-C21; the Spanish Ministry of Economy and Competitiveness (MINECO/FEDER, UE) under AYA2015-66211-C2-1-P, AYA2015-66211-C2-2, AYA2012-30789, and ICTS-2009-14; and European FEDER funding (FCDD10-4E-867, FCDD13-4E-2685). J.C.M. and S.B. acknowledge financial support from Spanish Ministry of Science, Innovation, and Universities through the project PGC2018-097585-B-C22. B.T. acknowledges support from the Israel Science Foundation (grant number 1849/19). C.Q. acknowledges support from Brazilian funding agencies FAPESP and CAPES. L.A.D.G. and R.G.D. acknowledge financial support from the State Agency for Research of the Spanish MCIU through the “Center of Excellence Severo Ochoa” award to the Instituto de Astrofísica de Andalucía (SEV-2017-0709), and R.G.D. also does it to the projects AYA2016-77846-P and PID2019-109067-GB100. C.H.M. acknowledges financial support from the Spanish Ministry of Science, Innovation, and Universities through the project PGC2018-097585-B-C2. A.E. acknowledges the financial support from the European Union – NextGenerationEU and the Spanish Ministry of Science and Innovation through the Recovery and Resilience Facility project J-CAVA.

We describe how statecharts are used to model the behavior of complex reactive systems. The paper is divided into two parts, according to the two main ways that have been suggested for modeling the structure of such systems: structured analysis (SA) and object-orientation (OO). It uses a cardiac pacemaker example for illustration. (This paper available in hard-copy only.)

We described the solution of the analysis problem in the BETA multi-language system. The key moment here is joining the analysis algorithms at the isolated stage of the optimization phase. From our point of view, such a stage is necessary in any well-developed optimizing compiler for finding information and control connections and frequency relations between program objects. This stage can be considered as a result of applying to the optimization phase such an universal optimization algorithm as "unloading of repeated parts".

The class of monotonic (in the sense of Scott [3]) functions is divided into subclasses of sequential and parallel ones and the problem of comparative power of different sequential and parallel functions with respect to composition (theorems 1–5) and recursion (theorem 6) is then investigated. In particular, theorem 6 answers the question of D.Scott [4] concerning the power of his Logic for Computable Functions.