Kane Computing CCTV Digital Video Recorders (DVRs)(1)
Specification:The new DS-4004H from Kane Computing is the very first implementation of the new H.264 / MPEG4-AVC video compression standard. It uses four media processors, each with its own video input, VIP (video input processor), memory and PCI interface. The heavily optimised H.264 / MPEG4-AVC codec runs on each processor. The codec yields higher picture quality and about 40% lower bit rate than is possible with MPEG4-ASP, and even greater improvements when compared to MPEG4-SP or MPEG2. The DS-4004H package also includes a high performance PC H.264 decoder for Windows.Applications and Uses:The DS-4004H COTS board can be integrated into a number of security and surveillance products such as Digital Recorders running under a variety of Operating Systems including Linux, XP, Win2K, WinME (decoder only) and Win98 (decoder only). An optional Board Support Package is available with SDK for Encoder, Decoder and Client-Server Networking applications, including example source code to help OEMs develop their products quickly.Add to Compare
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In today’s market, efficient use of bandwidth and storage is an essential part of maintaining an effective video surveillance system. A video management system’s ability to provide analysis, real time event notifications and crucial image detail is only as a good as the speed and bandwidth of a surveillance network. In the physical security industry, H.264 is the video compression format used by most companies. Some companies also employ H.264 enhancements to compress areas of an image that are irrelevant to the user at a higher ratio within a video stream in order to preserve image quality for more important details like faces, license plates or buildings. The H.265, H.264’s successor, will be increasingly used for compression in the future. Some companies are already using H.265 in their cameras and video management systems, while a host of other manufacturers are certainly preparing for its broader adoption in the years to come. Video compression technologies Reduced bandwidth and storage requirements are the primary benefits of video compression technologies Reduced bandwidth and storage requirements are the primary benefits of video compression technologies. In some cases, H.265 can double the data compression ratio of H.264, while retaining the same quality. Increased compression rate translates into decreased storage requirements on hard drives, less bandwidth usage and fewer switches – all of which reduce overall costs of system ownership. H.265 compression delivers a lower bitrate than H.264, which is relevant to end users and integrators because the lower bitrate reduces strain on hardware and can reduce playback issues. It’s very important that the compression format that is used is supported in all of the different components of a system: cameras, desktop computers on which the VMS is running and the VMS itself. It is also good for end users and integrators to understand the basics of video compression. Having a basic understanding of compression allows users to tweak settings to reduce bandwidth usage even more. Many cameras come with default settings that can be changed to ultimately reduce costs. ONVIF physical security In the physical security industry, ONVIF is working to incorporate into its specifications the use of new formats such as H.265 but is not directly involved in developing the compression standards themselves. With Profile T, the new ONVIF video profile released will employ a new media service that is compression agnostic. This means that it can support new video compression formats, including H.265, as well as new audio compression formats, with the ability to include new video and audio codecs as needed in the future without having to redesign its media service. In the physical security industry, ONVIF is working to incorporate into its specifications the use of new formats such as H.265 Standardisation organisations that are directly addressing new compression standards include the International Telecommunication Union (ITU), the Moving Picture Experts Group (MPEG) and a joint commission of the International Organization for Standardization (ISO)/International Electrotechnical Commission (IEC), which is addressing the coding of audio, picture, multimedia and hypermedia information. Other compression formats on par with H.264 and H.265 are being developed by companies such as Google. H.265 compression formats Using products that employ H.265 compression will reduce costs through bandwidth reduction, as will changing default settings on cameras, which are often conservative. Having a basic understanding of compression formats and how to tweak camera factory default settings also gives integrators the ability to further reduce bandwidth for added costs savings and increased system performance. These enhancements will analyse which parts of an image are most important and adjust local levels of compressions accordingly It is also worth noting that H.265 enhancements will likely be developed by camera manufacturers to further reduce bandwidth, as was the case with H.264. These enhancements will analyze which parts of an image are most important and adjust local levels of compressions accordingly. While H.265 itself is ready for prime time, its value as a tool for IP-based surveillance systems is dependent on support for the codec in all parts of the system – the VMS, server hardware, graphics cards and camera. Though widespread H.265 adoption is predicted, providers of these components are jumping on the H.265 bandwagon at different rates of speed. ONVIF is including support for H.265 in its new video profile, Profile T, because it believes it will become the most widely used compression format and ONVIF recognises the need to anticipate that migration as a future need of the industry. The new media service, which will be implemented with Profile T, will be future-proof in that when new compression formats are released in the future, ONVIF can adopt them very quickly. That flexibility will definitely help integrators.
According to IHS Market, it is estimated that there are over 60 million security cameras in the United States, and other reports say these cameras capture more than four billion hours of footage per week. Over the last decade, IP camera technology has dominated the conversation as it has provided users with a broad offering of enhanced image quality and features. With a large percentage of existing security systems relying on analogue, many end users looking for high definition (HD) video quality have been forced to take on a complete system overhaul. Infrastructure overhaul for HD video To make the switch, customers would need to change everything, from cameras to hardware to wiring– not to mention the lengthy installation process that would ensue. IP cameras also require higher Internet speeds and more cloud space. Whether constrained by budget, bandwidth or storage, many end users have been unable to adopt this new video surveillance method.Thanks to technological advancements within the security industry, HD over Coax offers a viable solution for integrators and end users alike Thanks to technological advancements within the security industry, HD over Coax offers a viable solution for integrators and end users alike. By utilising the current Coaxial cables, this offering yields high definition video, while requiring minimal infrastructure changes and is an optimal surveillance choice for security customers. Plus, with new advancements and updates being made frequently to this technology, there is a solution for every security need. The enhanced alternative of HD over Coax has been warmly welcomed in the security industry, thanks to its simple solutions and ever-evolving features. Many new analogue HD cameras are “plug and play,” able to connect directly to existing Coaxial cables. This eliminates the need for a complete system change, creating cost-savings for the end user and an enhanced video quality offering. Easy solutions for HD video As a result, integrators can cost-effectively upgrade their customer’s surveillance solution while using their legacy infrastructure, making it an attractive option for end users and an easy sell for dealers. Latency in video is another common issue with network-based camera systems, where even the slightest delay in video surveillance can hinder security response HD over Coax cameras themselves are always expanding and evolving to meet a wide array of security needs. With the introduction of fisheye and multi-sensor cameras, users now have a multitude of coverage options, not to mention the introduction of 4K bringing resolution options to the same level as IP. Some newer technologies are even touting 4K cameras paired with 4K digital video recorders (DVRs) made specifically for analogue systems. Longer cables grant transmission for up to 1600 feet, double the distance of standard analogue solutions, and triple that of IP systems. This single cable is able to transmit both HD video and audio. Recently, broadcast quality audio over Coax has become available in limited models, a substantial improvement over older analogue technology, which was unable to transmit audio. Stopping video delay Latency in video is another common issue with network-based camera systems. Even the slightest delay in video surveillance can hinder security response. IP cameras are forced to compress and packetise their video for transmission. The outcome of this is a reduced number of images per video, which in turn causes delay. HD over Coax on the other hand, delivers an unlimited amount of HD images in real time, with smooth motion and impressive clarity. Additionally, the point-to-point transmission delivers uncompressed video free of lag. Another touted benefit is that, unlike IP networked cameras, analogue systems provide a more secure video transmission. With so much sensitive information housed on a businesses’ network, adding another point of network access through an IP camera can create concerns for cyber security risks. HD over Coax delivers an unlimited amount of HD images in real time, with smooth motion and impressive clarity Preventing network hacking With HD over Coax, the physical connections between the camera and DVR prevent network hacking. By keeping the video surveillance system offline, security professionals are able to direct their attention to the physical threats at hand, rather than having to focus on deterring cyber security risks. One of the primary difficulties of deploying HD video solutions is the fact that many older systems utilise a wide variety of HD standards and platforms. To make matters more complicated, after HD over Coax was brought to market, manufacturers raced to create their own version of this technology. Today, the most popular proprietary standards are HD-CVI, HD-TVI and AHD. However, integrators and customers found that attempting to manage multiple HD technologies proved to be near impossible.Integrators and customers found that attempting to manage multiple HD technologies proved to be near impossible Diversifying surveillance through one DVR To combat these issues, manufacturers have introduced products with more flexibility to their portfolios. One example of this is the penta-brid DVR which grants the ability to seamlessly integrate multiple technologies deployed across one application. This means that systems with diverse camera brands and technologies, such as a mix of HD-CVI, HD-TVI, AHD, analogue or IP, can be connected through one DVR. For many end users with legacy analogue systems, penta-brid DVRs give them greater freedom to choose between a variety of solutions, rather than being limited to one option. With video resolution increasing, the space needed to store the footage is similarly rising. Penta-brid technology has been able to adapt to these evolving needs, giving users ample storage space to house the HD and 4K surveillance video with some of the newest models including H.265 compression. HD casino surveillance made simple For casinos, HD images are critical for identifying unauthorised personnel and unlawful behaviours to create a safe environment for guests and staff While HD over Coax is beneficial to many end users and integrators, those in the casino and hospitality markets find it crucial. With a combination of high profile guests, large amounts of cash on hand, constant crowds and strict industry regulations, reliable video surveillance is a must. Deploying new IP systems comes at a stiff price. When looking to upgrade their video surveillance, casinos must also be mindful of the installation process. When moving to an IP-based system, ripping out old wires and replacing them with new is the standard practice. This practice can be both disruptive and costly, not to mention gaming regulations require casino activities be monitored at all times so a complete system shutdown would result in revenue loss. This cost can be hard to justify, especially when the current legacy analogue system remains in working condition with only the lower image resolution to date it. For these scenarios, the most cost-effective option is to leverage the legacy infrastructure, replace the existing cameras with new devices, and reap the benefits that HD video has to offer without any lapse in security. For casinos, HD images are critical for identifying unauthorised personnel and unlawful behaviours to create a safe environment for guests and staff. HD over Coax cameras now offer the same resolution as IP cameras with a plug and play approach, that cuts down on expense without sacrificing quality. For businesses and applications that are unable to adopt IP technology, whether it be cost or time prohibitive, HD over Coax now features most of the same benefits IP has to offer without breaking the bank. By providing clear images in real time, maximising existing infrastructure, and affording cyber security benefits, HD over Coax provides an attractive solution for many end users and integrators.
Dollars spent by video surveillance customers must go towards ensuring high-availability capture, storage and on-demand access to live and archived video. Reaching this goal mandates high-availability of independent components – camera, network, storage (edge, external), internet connectivity, display, all Video Management Software (VMS) components and an architecture that can take advantage of this. In this note, we focus on seeing our way through to a video surveillance architecture, that provides high availability storage, access to live and stored video content. Of all options available to store recorded video, edge recording is the only one that is unaffected by network failure Edge recording Of all options available to store recorded video, edge recording is the only one that is unaffected by network failure. This makes edge storage a must-have. But, this has some limitations at present: Edge storage capacity is limited. Edge media has a short lifetime, rated only for thousands of hours of continuous recording. Most cameras are not secure and physical damage to the camera could lead to catastrophic loss of edge stored content. As storage and compression technology evolve, the constraints imposed by (1) and (2) could go away. However, securing cameras will continue to be a barrier for most installations. Secure external storage It is thus imperative to also store video in secure external storage. Such an architecture uses edge storage to fill in content gaps created by network, external storage outages. As edge storage technology improves, larger gaps can be filled in, but one will always need external storage. By our definition, ‘external storage’ is a solution stack that includes storage media and all software (including VMS) that provide access to this storage. Access to live and archived video Access to live video can either be met by external storage or directly by the camera Every surveillance solution needs to provide access to live and archived video. Access to live video can either be met by external storage or (and) directly by the camera. All things being equal, having the camera directly provide live video access, is a higher-availability solution. There is dependence on fewer components in the chain. Solutions in the market use one of the above two approaches for access to live video. Due to limited capacity and low physical security of edge storage, it makes sense at present, to have external storage meet all requests for archive video. Thus, we are led to an architecture that has heavy dependence on external storage. Dual-recording For high-availability, external storage must be architected with redundancy. Ideally, independent components that make up external storage – storage media, associated hardware and software (including VMS components), should be individually redundant and have smart interconnectivity. However, solutions in the market rigidly tie these components together. Failure of a single component causes failure of external storage. For e.g. hardware failure of a server causes VMS component failure AND storage failure. DR provides a smart way to provide high-availability for external storage For these solutions in the market, high-availability is achieved by having additional external storage units that step-in during outages of primary units. If these additional units continuously duplicate primary units, access gaps are minimised, and archive access is un-affected during primary unit outages. This is the idea behind Dual-Recording (DR). To meet cost budgets, these additional units can be configured to store subsampled (framerate, resolution) video content. A small number of additional units can support concurrent outages of all primary units. A few-to-many redundancy. Rising need for dual-recording Most cameras cannot be physically secured, and video content produced by a camera must be stored externally. Many VMS solutions use external storage to service live video access requests. Edge storage limitations impose restrictions on edge archive access at present. So, external storage is used to service requests for archive access too. Thus, a surveillance system ends up being over-dependent on external storage. DR provides a smart way to provide high-availability for external storage. As edge storage improves, it will be able to service archive access requests. VMS software will need to evolve, to use this capability smartly.
Kane Computing Ltd (KCL) are pleased to announce the latest in integrated embedded video solutions from Z3 Technology, LLC its new line of single board encoders. These video encoder systems are geared toward reducing time-to-market and simplifying overall system designs. Each product features on-board interfaces, allowing for immediate access to video encoding capabilities. Z3 single board encoders - all-in-one solution “Z3’s single board encoders were developed to offer an all-in-one solution for our customers. They are able to leverage the technologies from our OEM production-ready modules and software with the expanded capabilities of the on-board interfaces,” Aaron Caldwell, CEO, Z3 Technology said. “These characteristics will effectively eliminate product development cycles and allow customers to go straight from product definition to production.” Now available, the Z3-SBE264-20 is a compact single board encoder capable of encoding and decoding H.264 video in resolutions up to 1080p60 via on-board 3G-SDI and HDMI interfaces. Other on-board connectors include USB, SDI, HDMI, GigE and SATA2. This production-proven system measures 124 x 128 mm. It is ideal for applications such as broadcast video encoding, medical and industrial video, MCUs and high definition video subsystems. The Z3-SBE264-20 features encode and decode support of Pro-MPEG Forward Error Correction streams as well as Closed Captioning. Also offering H.264 video encoding and decoding in 1080p60, is the Z3-SBE264-01. On-board connectors include HDMI, Composite, USB and GigE. This ultra-compact board measures only 80 x 92 mm. Closed Captioning is among the list of product highlights. The Z3-SBE264-01 also features decode support of Pro-MPEG Forward Error Correction streams. Z3-SBE264-01 Processor ARM Cortex A8 + video acceleration Video codecs H.264 Interfaces HDMI, composite, USB 2.0, GigE, UART Audio codecs AAC or PCM Memory DDR3: 1GB Flash: 256 MB Operating system Linux 2.x (root file-system, NAND boot, tool chain and flash programming tool), u-boot Encoding resolutions H.264 video up to 1080p60. dual channel encoding up to 1x1080i + 1x 480i Output formats RTP, RTMP, RTSP, TSRTP, TS file and MPEG-2 TS Decoding resolutions H.264 video up to 1080p60 Input formats RTP, TS File and MPEG-2 TS Z3-SBE264-20 Processor DSP + ARM cortex A8 Video codecs H.264 Interfaces 3G-SDI, HDMI, USB 2.0, GigE, SATA2, UART Audio codecs AAC or PCM Memory DDR3: 1GB Flash: 256 MB Operating system Linux 2.x (root file-system, NAND boot, tool chain and flash programming tool), u-boot Encoding resolutions H.264 video up to 1080p60 Output formats RTP, RTMP and MPEG-2 TS Decoding resolutions H.264 video up to 1080p60 Input formats RTP and MPEG-2 TS Systems include one Single Board Encoder, preconfigured software that is easy to customise if needed, and documentation.
KCL signs the UK Distribution Agreement with LDS to supply the LDS_Sata_Recorder_XV6 IP Kane Computing Ltd (KCL) have signed an exclusive UK Distribution Agreement with Logic Design Solutions to sell their FPGA based recorder IP. Logic Design Solutions supply software to support recording of data on SATA disk systems, up to 6G running on Xilinx Virtex 6 FPGAs. The LDS_SATA_RECORDER_XV6 IP is a complete recorder system Software Solution (IP). It can be configured according to the recording performance required and the quantity of the data to record. The LDS_SATA_RECORDER_XV6 IP is available only on Xilinx Virtex 6 LXT/SXT FPGA. This IP can be customised according to specific needs (application specific requirement). Any other pre-designed functions can be integrated into the FPGA. FPGA density and I/O requirements can be defined according to the customer specification. Netlist and VHDL source code format is available for ease of customisation. The C source code is always provided. Customisation can be done by Logic Design Solutions. The LDS_SATA_RECORDER_XV6 IP has been validated on Xilinx ML605 and XM104 boards and also a custom board, the MSE-RECORDER-XV6, originally designed for ONERA, “the French Aerospace Lab” and is available from LDS/KCL as a complete system with or without disks. The MSE-RECORDER-XV6 features a Xilinx Virtex 6 LX36ST-2 or-3 FPGA, eight SATA III (6Gb/s), ethernet 10G SFP+ and 1G and 1.5GB DDR3. In addition to LDS_SATA_RECORDER_XV6 IP, LDS also licence SATA HOST IP and SATA DEVICE IP.
Kane Computing Ltd (KCL) have signed a distribution agreement with BAP Image Systems of Erlangen Germany to sell their specialised high speed colour and grayscale data capture and processing products used in medical, industrial, financial and government applications. BAP Image Systems are specialists in designing and supplying high speed image capture and processing products and systems including high speed line scan cameras and image processing and compression hardware for integration into products such as document readers. BAP manufacture a digital colour line scan camera board the LC7K5M70CG. The electronics of the LC7K5M70CG camera is capable of capturing a true 24-bit RGB image stream up to 7500 pixels in width without a Bayer filter mosaic. This allows a high quality 600dpi imaging of DIN A3 documents of 1200dpi for DIN A5 document size without any interpolation. The LC7K5M70CG works with BAP Image Engines (IE64-57 and IE64-HS). Both IE64 image processing boards supports two camera inputs serviced in parallel at the same time. All necessary image processing functions can be customised using the open interface. Both image processing units have standard USB2.0 interface to Host-PC. The hardware version of IE64-57 can be equipped with other interfaces (USB3.0, Ethernet). The IE64-HS, based on DSP, FPGA and ASIC technologies, has two camera inputs (serial or CameraLink) and is also able to acquire many images simultaneously. The customised firmware rotates, crops, binarises and compresses (according to CCITT Group IV, JPEG and JPEG2000) the acquired images. The processed images are sent to the host through USB 2.0 interfaces. Windows 2000/XP drivers are supported. Other drivers can be developed. The IE64_HS can be installed as an embedded system in any device, which has to perform complicated image processing functions in a limited time frame.
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