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About 10,000 papers for “code modification”

PROPOSALS FOR MODIFICATION OF THE ORDINANCE AND CODE REGULATING EATING AND DRINKING ESTABLISHMENTS1

John D. Faulkner, William C. Miller, Donald K. Summers · Journal of Milk and Food Technology · 1956

Plans for the preparation of a revised edition of the Ordinance and Code Regulating Eating and Drinking Establishments — 1943 Recommendations of the Public Health Service are presented. The major proposals for changes or modifications of the current edition which have been submitted to the Public Health Service are discussed. It is emphasized that no final decision has been reached on these proposals and that they will be submitted to the PHS Food Establishment Sanitation Advisory Committee for its consideration.

Cited by 2

XSMOD: a code for the modification of the Los Alamos Master Data File

Melinda Hoyt, F. McGirt · OSTI OAI (U.S. Department of Energy Office of Scientific and Technical Information) · 1974

XSMOD is a CDC 6600 FORTRAN CDde which allows modifications to group and/or cross-section sets in the Los Alamos Master Data • File.The code uses the DATATRAN data manipulation language and is modular in structure.Data sets may be added to or deleted from the library; they may be retrieved from the library and printed or may be written to a tape or disk file in a format acceptable to processing codes.A description of the code, flow diagrams, a code listing and instructions for using the code are included. I. II. TilU t-IAINCODE XSMOD recalls the directory to the DATATRAN library, calls the module RDJOBS to rend the job requests and set up tho necessary retrievals, acts us a control program to call upon individual modules or subroutines to perform the tasks requested, DISTRIBUTION OF THIS DOCUMENT IS UNLIMITED h defines and saves the directory if it was modified, and sets up linkage with EVXS if requested.I'low diagram? for the main code and all modules are in Appendix A. The FORTRAN code listing is in Appendix B. The modules called and their functions are these: RDJOBS Read in job requests, set up add, tape and retrieve lists, call RECLIB to scan library tape and transfer requested blocks to ECS.ADDG Add and/or list a group set.ADDXS Add a cross-section set.LISTXS Print a cross-section set.TAPE Prepare a file TAPE1 in the same format as that produced by LIB66.Communication with modules is accomplished by means of DATATRAN N.lists, which are defined in Ref. 4. XSMOD also calls the following subroutines: DELETE Delete a group or cross-section set from the DATATRAN library directory.CONTENT Print contents of DATATRAN directory.CHANGE Print message and return to main code.This is a dummy subroutine which can be replaced by a module if the CHANGE keyword is implemented.Communication with the subroutines is standard, i.e., by arguments and common.The subroutine DELETE modifies the directory by replacing with zeroes"all directory information associated with the group identification number (GID) or cross-section identification number (SID) being deleted.The directory structure is described in detail in the section MODULE RDJOBS.DELETE modifies only the directory since removal of the data set is not necessary.To remove the data set from the library tape a separate DTPURGE job must be done.That job is described in Ref. 4, and the information needed as input for it is printed out by the subroutine DELETE.When all the DELETE's requested on a single card have been done, the directory is closed up and the item count is modified.The current directories are defined in N.lists to be available to all modules, and the directory save flag is set so that a new directory will be saved at the end of the job.The subroutine CONTENT prints out the list of GID's and SID's in the directory at the time the CONTENT card is processed.It also prints the directory recall number and the save flag winch indicates whether or not the recall nunvDer is valid.III.MODULE RDJOBS The option cards, which communicate to the main code the jobs which the user wants to do, arc read by the module RD.JOBS.The implemented keywords and the jobs they do are as follows: ADD SID Add specified cross-section sets to the DATATRAN library and print.ADD GID Add specified group sets to the DATATRAK library and print.DELETE SID Delete specified cross-section sets from the DATATRAN library directory.DELETE G1D Delete specified group sets from the DATATRAN library directory.LIST SID Print specified cross-section sets from the DATATRAN library.LIST GID Print specified group sots from the DATATRAN library.TAPE ALL Write the entire DATATRAN library to TAPI-1.TAPE SID Write specified cross-soction sots to TAPE1.TAPE GID Write specified group sets to TAI'lil.

Cited by 0Open access

REWRITING THE CODE OF LIFE - THE SCIENCE AND POTENTIAL OF HISTONE MODIFICATION EDITING

Brandl, Edenilson · Zenodo (CERN European Organization for Nuclear Research) · 2023

Histone modification editing, a cutting-edge technology in the realm of epigenetics, offers a transformative leap in our understanding of gene regulation and its implications. This systematic review explores the methods and development of histone modification editing, revealing remarkable precision in gene editing, intricate crosstalk between epigenetic marks, and promising clinical applications. Ethical considerations and global collaboration are integral aspects, and the results underscore the potential for histone modification editing to reshape genetics, medicine, and biotechnology. With emerging trends in epigenetic reprogramming and epitranscriptomics, this technology is poised to unlock uncharted territories in science and medicine, offering both challenges and unparalleled possibilities. Die Bearbeitung von Histonmodifikationen, eine Spitzentechnologie im Bereich der Epigenetik, bietet einen transformativen Sprung in unserem Verständnis der Genregulation und ihrer Auswirkungen. Diese systematische Übersicht untersucht die Methoden und die Entwicklung der Bearbeitung von Histonmodifikationen und zeigt bemerkenswerte Präzision bei der Bearbeitung von Genen, komplizierte Wechselwirkungen zwischen epigenetischen Markierungen und vielversprechende klinische Anwendungen. Ethische Überlegungen und globale Zusammenarbeit sind wesentliche Aspekte, und die Ergebnisse unterstreichen das Potenzial der Histonmodifikationsbearbeitung, um Genetik, Medizin und Biotechnologie neu zu gestalten. Angesichts der aufkommenden Trends in der epigenetischen Reprogrammierung und Epitranskriptomik ist diese Technologie bereit, Neuland in Wissenschaft und Medizin zu erschließen und sowohl Herausforderungen als auch beispiellose Möglichkeiten zu bieten.

Cited by 0Open access

Investigation of Heatflux Modification by Magnetohydrodynamic Interaction Employing the DLR CFD Code TAU

Markus Fertig · elib (German Aerospace Center) · 2015

High surface heat loads occur during the entry of a space vehicle into planetary atmosphere. Therefore, the surface of the vehicle has to be protected by a thermal protection system (TPS). Among other advanced thermal protection system concepts the heatflux reduction by magnetohydrodynamic (MHD) interaction was investigated within the DLR project THERMAS in cooperation with Dr. Daniel Potter from University of Queensland, Australia who worked at DLR during a postdoc stay. Numerical simulations of the flow around a wind tunnel probe were performed employing the DLR CFD code TAU accounting for thermal nonequilibrium of the electrons. No difference in shock stand-off distance and heat flux was found in comparison to the thermal equilibrium model without magnetic field. The mitigation of the shock stand-off distance with two temperature model was lower compared with the thermal equilibrium solution. With applied magnetic field, the surface heat flux employing the two temperature model increases while it decreases using the thermal equilibrium model.

Cited by 1

Modification of the 1979 “Denver wire code” for different wire or plumbing types

Ed Leeper, Nancy Wertheimer, David A. Savitz et al. · Bioelectromagnetics · 1991

This article examines "wire configuration coding" as used to estimate relative residential AC magnetic field exposure in epidemiological studies--and the need to alter such coding for time or locations other than those in which the code was developed. Effects of different secondary wire practices are particularly examined.

Cited by 10

Modification of an interative code for unfolding neutron spectra from multisphere data. [BON31G]

R. Sanna · OSTI OAI (U.S. Department of Energy Office of Scientific and Technical Information) · 1976

The iterative spectral unfolding code, BON, developed at the Health and Safety Laboratory has been rewritten to use recently calculated 31-group response matrices and has been renamed BON31G. Tests were performed to evaluate the effect on the unfolded spectrum of the trial vector used to initiate the iterative process.

Cited by 1Open access

An embeddable molecular code for Lewis X modification through interaction with fucosyltransferase 9

Taiki Saito, Hirokazu Yagi, Chu‐Wei Kuo et al. · Communications Biology · 2022

N-glycans are diversified by a panel of glycosyltransferases in the Golgi, which are supposed to modify various glycoproteins in promiscuous manners, resulting in unpredictable glycosylation profiles in general. In contrast, our previous study showed that fucosyltransferase 9 (FUT9) generates Lewis X glycotopes primarily on lysosome-associated membrane protein 1 (LAMP-1) in neural stem cells. Here, we demonstrate that a contiguous 29-amino acid sequence in the N-terminal domain of LAMP-1 is responsible for promotion of the FUT9-catalyzed Lewis X modification. Interestingly, Lewis X modification was induced on erythropoietin as a model glycoprotein both in vitro and in cells, just by attaching this sequence to its C-terminus. Based on these results, we conclude that the amino acid sequence from LAMP-1 functions as a "Lewis X code", which is deciphered by FUT9, and can be embedded into other glycoproteins to evoke a Lewis X modification, opening up new possibilities for protein engineering and cell engineering.

Cited by 7Open access

Steganography Technique and Modification of Substitution Cipher Using ASCII Code and Fibonacci Sequences

Musthofa Galih Pradana, Pujo Hari Saputro, Bondan Wahyu Pamekas · CSRID (Computer Science Research and Its Development Journal) · 2021

<br /><em>Cryptography is widely used to secure data and information so that it is not easily misused by parties who are not interested in the data. One type of cryptographic algorithm is Caesar Cipher and Vigenere Cipher. Both of these algorithms are classic cryptographic algorithms that need to be modified so that they become more optimal in the data security process. The first modification is to modify the Vigenere key using Fibonacci. In general, Vigenere Cipher will repeat the same keyword to complete the number of characters that are lacking so that the number of characters is the same as the number of characters in the plaintext. The second modification is to change or convert plaintext letters into ASCII letters so that the code is more difficult to solve. After the ASCII conversion process is done, the next results will be converted back in Hexa letters. In addition to the two modifications made, the steganography technique is also added by hiding the code behind the media in the form of images. Images that are sampled will be renamed and stored in different places.</em>

Cited by 0Open access