I have been using the Ghost server on version 11.5 for the last few years and we have now purchased Ghost Suite 3.1 MP4. I have installed it on a Windows 2012 SR2 VM. With the old version it worked smoothly by launching the ghost server and then starting the TFTP server and the PXE server. I can't seem to get anything similiar to that to work with the new version. I have tried a number of things and watch a number of videos. Can anyone point me in the direction of how I can get this to work. I have followed these articles: -pxe-boot-image-ghostcasting-ghost-solution-suite-3 -creation-legacy-ghostcasting-ghost-solution-suite-3, _US/article.HOWTO124443.html I am not sure if my problem is that on the GSS tab everything is grayed out. See screenshot.
When I boot to the pxe it gets an ip address and then ties to connect via TFTP and that times out and goes to the next boot option. It is not on the same vlan but is on the same vlans as my current Ghost server is running which is running 11.5. To get my 11.5 to work I ruin a batch file that starts ghostsrv.exe and either points to where my image file is or to the location that it is being created to with the image file name. I then start the PXE Server service and the PXE server and everything works. I have also tried disconnecting my current server from the network and trying the GSS 3.1 server with the same results.
Symantec ghost server 11.5 with 12
What I need to understand is (please bare with me), having gone through the instructions on the above link what am I then able to do? Will I be able to produce a ghost boot disk which I can then use on my HP 800 G1 PC's so that they can then connect to my ghostcast server and be imaged from there?
I am going through part 1 of your article and I seem to have hit a bit of a stumbling block. You guys will really have to bare with me on this as I am only a low level 1st/2nd line support analyst. Assume that I know nothing about ghost console or winpe.
I am using ghost cast server 11.5.1.2266. I am trying to multicast an image to multiple computers. The computers have Intel DQ57TM boards and I am just using the on board network connection. I have noticed that when I only ghost 2 or 3 computers the session runs very quickly, But when I get over 8 or 10 computers the sessions starts to slow down. Any on have any ideas on why this might be happening? Or where I might begin to troubleshoot this.
A quick test of this is to connect all 10 of your machines and the server to an old unmanaged 100mb hub with an uplink to the main network. Once the session is established with the 10 computers unplug the uplink port from the main network so only your server and the clients are on it and see if you make it through the full ghost image with out slow down.
As of January 6, 2010, the latest build from Live Update is 11.5.1.2266 (Live Update 5 (LU5)).[10] This updates Ghost Solution Suite to 2.5.1 and provides support for Windows 7 and Windows Server 2008 R2. Furthermore, Ghost 11.5 is compatible with BartPE's bootable CD using a PE Builder plug-in for Symantec Ghost 11[permanent dead link].
Although Ghost Solution Suite remains a viable option for users that want to deploy golden images, we think Macrium Deployment Kit is a far more effective tool. Not only does it allow you to deploy to an unlimited number of workstations or servers, a single license allows up to 5 IT technicians to deploy the image with separate USB sticks.
Symantec Ghost is a well-known network clone client tool for data on hard drives, while Symantec GhostCast Server (GhostSrv for short) serves as its corresponding server-side program, which uses the network multicast technology, and implements one-to-many data transmission via Symantec Ghost. Suppose you need to install the same operating system to multiple computers with similar configurations, then using Symantec GhostCast Server+ Symantec Ghost will make the whole process become much simpler and more efficient.
It may be, however, that your original disk was GPT format. I cannot find if Ghost 13 supports cloning this type of disk (actually I can't find the documentation for this version). If this is the case, you have to do the Ghosting a specific way (even 11.5 seems to work) and using UEFI bootable media to do the capture and the deploy. See here for the complaint: -disk-image-with-uefi
The Mission Operations and Data Systems Directorate (MO&DSD) has embarked on a new approach for developing and operating Ground Data Systems (GDS) for flight mission support. This approach is driven by the goals of minimizing cost and maximizing customer satisfaction. Achievement of these goals is realized through the use of a standard set of capabilities which can be modified to meet specific user needs. This approach, which is called the Renaissance architecture, stresses the engineering of integrated systems, based upon workstation/local area network (LAN)/fileserver technology and reusable hardware and software components called 'building blocks.' These building blocks are integrated with mission specific capabilities to build the GDS for each individual mission. The building block approach is key to the reduction of development costs and schedules. Also, the Renaissance approach allows the integration of GDS functions that were previously provided via separate multi-mission facilities. With the Renaissance architecture, the GDS can be developed by the MO&DSD or all, or part, of the GDS can be operated by the user at their facility. Flexibility in operation configuration allows both selection of a cost-effective operations approach and the capability for customizing operations to user needs. Thus the focus of the MO&DSD is shifted from operating systems that we have built to building systems and, optionally, operations as separate services. Renaissance is actually a continuous process. Both the building blocks and the system architecture will evolve as user needs and technology change. Providing GDS on a per user basis enables this continuous refinement of the development process and product and allows the MO&DSD to remain a customer-focused organization. This paper will present the activities and results of the MO&DSD initial efforts toward the establishment of the Renaissance approach for the development of GDS, with a particular focus on both the technical
The aim of this study was to evaluate the efficacy of animal-assisted therapy (AAT) in elderly patients affected by Alzheimer's disease based on the formal reality orientation therapy (ROT) protocol. Our study was carried out at an Alzheimer's centre for 6 months. A homogeneous sample (age, Mini-Mental State Examination (MMSE), 15-item Geriatric Depression Scale (GDS)) of 50 patients was selected at random and successively. Patients were divided into three groups: (i) 20 patients received a course of AAT (AAT group) based on the ROT protocol; (ii) 20 patients were engaged exclusively in activities based on the ROT group; and (iii) 10 patients (control group) participated in no stimulations. MMSE and GDS were administered at time 0 (T0 ) and time 1 (T1 ) to all three groups. Differences within groups between T0 and T1 for GDS and MMSE scores were analyzed by Student's t-test. Differences between group means were analyzed using an anova test with the Bonferroni-Dunn test for post-hoc comparisons. Both the AAT group and ROT group had improved GDS scores and showed a slight improvement in terms of mood. On the GDS, the AAT group improved from 11.5 (T0 ) to 9.5 (T1 ), and the ROT group improved from 11.6 (T0 ) to 10.5 (T1 ). At the same time, a slight improvement in cognitive function, as measured by the MMSE, was observed. In the AAT group, mean MMSE was 20.2 at T0 and 21.5 at T1 , and in the ROT group, it was 19.9 at T0 and 20.0 at T1 . In the control group, the average values of both the GDS and MMSE remained unchanged. The Bonferroni-Dunn results showed statistically significant differences between groups, particularly between the AAT group and the other two (P
Depression is common and an important consequence of stroke but there is limited information on the longer-term relationship between these conditions. To identify the prevalence, incidence and predictors of depression in a secondary-care-based cohort of stroke survivors aged over 75 years, from 3 months to up to 10 years post-stroke. Depression was assessed annually by three methods: major depression by DSM-IV criteria, the self-rated Geriatric Depression Scale (GDS) and the observer-rated Cornell scale. We found the highest rates, 31.7% baseline prevalence, of depressive symptoms with the GDS compared with 9.7% using the Cornell scale and 1.2% using DSM-IV criteria. Incidence rates were 36.9, 5.90 and 4.18 episodes per 100 person years respectively. Baseline GDS score was the most consistent predictor of depressive symptoms at all time points in both univariate and multivariate analyses. Other predictors included cognitive impairment, impaired activities of daily living and in the early period, vascular risk factor burden and dementia. Our results emphasise the importance of psychiatric follow-up for those with early-onset post-stroke depression and long-term monitoring of mood in people who have had a stroke and remain at high risk of depression.
Sponges are simple animals with few cell types, but their genomes paradoxically contain a wide variety of developmental transcription factors, including homeobox genes belonging to the Antennapedia (ANTP) class, which in bilaterians encompass Hox, ParaHox and NK genes. In the genome of the demosponge Amphimedon queenslandica, no Hox or ParaHox genes are present, but NK genes are linked in a tight cluster similar to the NK clusters of bilaterians. It has been proposed that Hox and ParaHox genes originated from NK cluster genes after divergence of sponges from the lineage leading to cnidarians and bilaterians. On the other hand, synteny analysis lends support to the notion that the absence of Hox and ParaHox genes in Amphimedon is a result of secondary loss (the ghost locus hypothesis). Here we analysed complete suites of ANTP-class homeoboxes in two calcareous sponges, Sycon ciliatum and Leucosolenia complicata. Our phylogenetic analyses demonstrate that these calcisponges possess orthologues of bilaterian NK genes (Hex, Hmx and Msx), a varying number of additional NK genes and one ParaHox gene, Cdx. Despite the generation of scaffolds spanning multiple genes, we find no evidence of clustering of Sycon NK genes. All Sycon ANTP-class genes are developmentally expressed, with patterns suggesting their involvement in cell type specification in embryos and adults, metamorphosis and body plan patterning. These results demonstrate that ParaHox genes predate the origin of sponges, thus confirming the ghost locus hypothesis, and highlight the need to analyse the genomes of multiple sponge lineages to obtain a complete picture of the ancestral composition of the first animal genome. 2ff7e9595c
Comentarios