RNAmmer

The RNAmmer 1.2 server predicts 5s/8s, 16s/18s, and 23s/28s ribosomal RNA in full genome sequences. This page is the entry of the CBS Prediction Server for RNAmmer. RNAmmer is available also as a Web Service described by the following WSDL file. Please read the instructions on the RNAmmer Web Services section.
This pages allows academic users to download RNAmmer
WSRNAmmer_1_2_ws0
Namespace: http://www.cbs.dtu.dk/ws/WSRNAmmer_1_2_ws0
This Web Service predicts location of ribosomal RNA genes in full genome sequences by using Hidden Markov Models based on alignments from a highly cureated dataset of structurally aligned sequnces. The input is one or more genomic sequence(s) as either one or more contigs. Each contig is submitted as one continous string of DNA together with the sequences identifier. The kingdom (either Bacteria, Archaea, or Eukaryotes) is specified once for each job that is submitted, using the abbriviations 'bac', 'arc', and 'euk'. More information about the method can be found at: http://www.cbs.dtu.dk/services/RNAmmer/ This service is fully asynchronous; the usage is split into the following three operations, which is usually executed in this order. Procedures and messages used are either common and shared among all the CBS Web Services, or distinct to each individual Web Service. Marked [distinct] and [common] respectively. 1. runService [distinct/common] Submit the input parapeter(s) and sequence data and returns a job identifier Input: [distinct] * 'mol' -Molecule (e.g. ssu,lsu,tsu) * 'kingdom' - The kingdom of the genomic sequence 3 kingdoms are available: bac, euk, arc. This is specified only once for the sequences in the current job. * 'sequences' - An array of sequence objects, containing the following elements: * 'ident' - The identifier of the sequence * 'seq' - The sequence specified as one continous string Output: [common] * 'jobid' - The 32 byte identification string of the job * 'datetime' - The last timepoint at which the status of the job has changed * 'status' - Possible values are QUEUED, ACTIVE, FINISHED, WAITING, REJECTED, UNKNOWN JOBID or QUEUE DOWN 2. pollQueue [common] Once obtained from 'runService', a job identification can be used to poll the status to see if the result is ready for download. Input: [common] * 'jobid' - The 32 byte identification string of the job Output: [common] * 'jobid' - The 32 byte identification string of the job * 'datetime' - The last timepoint at which the status of the job has changed * 'status' - Possible values are QUEUED, ACTIVE, FINISHED, WAITING, REJECTED, UNKNOWN JOBID or QUEUE DOWN 3. fetchResult [distinct/common] Once the status is 'FINISHED' the results generated by the Web Service can be retrieved by specifying the jobid; Input: [common] * 'jobid' - The 32 byte identification string of the job Output: [distinct] * 'predictionTitle' - Short description of the generated output * 'predictor' - Name and version of the program which generated the output * 'predictionDate' - Date at the time the when the prediction finished * 'entries' - A collection of gene predictions containing the following information: * 'mol' - Molecule type (5/8s, 16/18s, or 23/28s rRNA) * 'feature' - feature type (rRNA) * 'start' - Start position of the gene (integer) * 'stop' - stop position of the gene (integer) * 'direction' - strand of the gene (+/-) * 'score' - The HMM alignment score (floating point number) * 'evalue' - The E-value of the HMM alignment (floating point number) * 'sequenceEntry' - The sequence identifier ( as specified when sequence was uploaded ) * 'sequence' - The gene sequence extracted from the genomic contig * 'model_string' - The consensus of the Hidden Markov Model (output from hmmsearch) * 'match_string' - The match of the query to the model (output from hmmsearch) * 'query_string' - The query sequence (output from hmmsearch) For more information, please contact Peter F. Hallin: pfh@cbs.dtu.dk The method is described in the following paper: RNAmmer: consistent and rapid annotation of ribosomal RNA genes (2007) Karin Lagesen, Peter Fischer Hallin, and David W. Ussery
Operations
pollQueue
- SOAP Action: http://www.cbs.dtu.dk/ws/WSRNAmmer_1_2_ws0#pollQueue
- Input Message: pollQueueRequest
- job
- pollQueue type pollQueue
- pollQueue type pollQueue
- job
- Output Message: pollQueueResponse
- queueentry
- pollQueueResponse type pollQueueResponse
- pollQueueResponse type pollQueueResponse
- queueentry
runService
- SOAP Action: http://www.cbs.dtu.dk/ws/WSRNAmmer_1_2_ws0#runService
- Input Message: runServiceRequest
- parameters
- runService type runService
- runService type runService
- parameters
- Output Message: runServiceResponse
- parameters
- runServiceResponse type runServiceResponse
- runServiceResponse type runServiceResponse
- parameters
fetchResult
- SOAP Action: http://www.cbs.dtu.dk/ws/WSRNAmmer_1_2_ws0#fetchResult
- Input Message: fetchResultRequest
- parameters
- fetchResult type fetchResult
- fetchResult type fetchResult
- parameters
- Output Message: fetchResultResponse
- parameters
- fetchResultResponse type fetchResultResponse
- fetchResultResponse type fetchResultResponse
- parameters
WSDL Changes
| Date | Description of Changes |
| 20th June 2009 | First Snapshot |

Test #1: Predict rRNA genes in Mycoplasma genitalium G37
Predict rRNA genes in Mycoplasma genitalium G37
- Login to post comments
Magnetostriction is (almost)
Magnetostriction is (almost) never the source of noise in an inductor or transformer. Airgaps - also in the form of poorly assembled cores - are a common source, loose windings is another. And yes, I heard once a shielding vibrate. 220-601 dumps Capacitors sometimes make sounds. Quite unexpected. I heard it from a type-III ceramic one. But logical after all: it used BaTiO3 as a huge-K dielectric because it is ferromagnetic, and under polarisation it acts as a piezoelectric material and is commonly used in transducers. Type-I ceramic don't do that, plastic capacitors neither. 220-602 dumps The get a hum from a 150kHz switching frequency, you must have something flawed in your circuit: typically an oscillating regulation - consistent with the bigger capacitor stabilizing it. And by the way, 150kHz is already huge, 220-701 practice questions I wouldn't go to 250kHz. The duty cycle can't be 100% nor 90% in an inductor buck circuit with 24V and 3.3V; and even with a transformer, sun 310-200 designers stop at <90% duty cycle so that the transistor always switches