Distributed ConvergeIT Systems. Lee Funnell EMEA Technical Manager

Transcription

1 Distributed ConvergeIT Systems Lee Funnell EMEA Technical Manager

2 Introduction Lee Funnell CTP, CDCDP EMEA Technical Manager British Standards Institute - Premises Cabling Experts Panel Data Centre Alliance - Cabling Technical Director Fibreoptics Industry Association - Director lee_funnell@siemon.co.uk

3 Growth of Converged Systems

4 So what is a ConvergeIT System? Convergence is the bringing together of autonomous systems onto a common communication platform within a building or business to create a single unified solution Ethernet Network Communication: Copper or Fibre BMS Structure ICT Network

5 The DNA of a building Digital Network Architecture Data Security Lighting HVAC Access Energy Management Voice Telephony Paging Text Messaging Voice/Video Conferencing Core Delivery Processes (Information availability, department collaboration, systems outcome improvements, cost containment, location tracking, etc.) Advanced Applications (Supporting critical systems, measuring & monitoring, etc.)

6 The building s DNA? Expanding the Digital Network Architecture Collaborate Enabling partners, customers & Eco systems Connect LAN & Data centre systems & IP enabled devices Manage Intelligent (IP) services & systems ConvergeIT Network Convergence Secure Internal & regulatory mandates Visualise Aim for higher utilisation & efficiencies

7 The building s DNA? Expanding the Digital Network Architecture Collaborate Enabling partners, customers & Eco systems Manage Intelligent (IP) services & systems Secure Internal & regulatory mandates Connect LAN & Data centre systems & IP enabled devices ConvergeIT Network Convergence Visualise Aim for higher utilisation & efficiencies Lighting Traffic Parking Control Fire Control Life Safety Landscaping/Irrigation Elevator Management IPCCTV & Access Digital Signage Air & Water Management Energy Systems

8 Structured Wiring Utilising your current DNA Why use structured cabling for building distributed services? Eliminates proprietary cabling Redundant pathways reduced Low voltage cabling becomes managed Provides migration path to IP devices Asset control Reduced labour/costs/rapid deployment MAC costs reduced Supports energy conservation Technically supported by BS EN

9 Distributed Systems BS EN Supporting two architectures Type A: Generic cabling (twisted pair or fibre) which will support the Service Outlet (SO). CD MD SD SCP SO TE Campus backbone cabling sub-system Building backbone cabling sub-system Service distribution cabling sub-system Service area cabling Generic Cabling System The generic cabling must be able to support the broadest set of existing and emerging applications within the environmental conditions: 1. Consideration for Cat 6A (Class E A ) & Category 7A (Class F A ) 2. Consideration for PoE applications & remote powered devices

10 Distributed Systems BS EN Supporting two architectures Type B: Generic cabling (twisted pair or fibre) to the Service Concentration Point (SCP) providing opportunity for: a)application specific cabling to be installed between the SCP and terminal equipment b) Application specific cabling to be connected at the SCP TE TE Connection configured as plug socket CD MD SD SCP TE TE TE Connection directly attached to cabling Campus backbone cabling sub-system Building backbone cabling sub-system Area feeder cabling sub-system Application specific cabling Generic Cabling System

11 Advantages of using a SCP An SCP allows coverage area connections to be easily reconfigured Consolidation Points (CP) for voice and data and SCP s for BAS applications can coexist within the same zone box We need to move away from thinking of drops per user, but the number of IP applications/ services needed According to the Continental Automated Buildings Association (CABA), MAC work is most efficiently performed on a zone-style converged cabling system In this case, cost savings to perform MAC work are boosted from the 15% estimated for a non zone-style converged cabling system to 38%!

12 Redundancy Additional redundant pathway designs are recommended to support multiple routes for Cabling Subsystems Redundant cabling should be installed in different directions using different pathways Security and safety requirements may mandate redundancy for specific BAS applications Connection of functional elements providing redundancy for Type A generic cabling

13 Allowed distributed device connection topologies Three physical device connections using a star topology: Star Bridged Connection Chained Connection Two physical device connections using multipoint bus and ring topologies: Multipoint bus Multipoint ring/fault tolerant circuit

14 Coverage area cables Coverage area cables are used for connecting the SCP to a building automation system device or the cable between two building automation system devices Maximum length is determined by: Application Topology used number of devices served by the same Cabling Subsystem type A or type B Note: Some applications may limit coverage area cables to 5 meters

15 Zone-style Star topology IP-based surveillance system Camera Recoding, Playback and optional Controller Software SCP located in a Zone Box Horizontal Cable Equipment Outlet (optional if zone box is present) Distributor A (Patch Panel) Camera Video Server PoE Switch

16 Example of a zone converged cabling design Benefits: Ease of deployment Facilitates the use of trunking cables Improved pathway utilization MAC work Costs less Is faster and less disruptive Supports rapid reorganization of floor space

17 Example zone box to device connections TO SO Lighting Controller TO SO Access Controller IP Camera MAX 24-port Zone Unit Enclosure Spare outlet for future use

18 Cabling choices for Type A & B Cabling The generic cabling must be able to support the broadest set of existing and emerging applications within the environmental conditions: 1. Maintain cabling type as network infrastructure 2. Consideration for Cat 6A & Cat 7A 3. Consideration for PoE applications & remote powered devices

19 European Standards: EMC Compliance EN Separation between power and data Based on containment system used and 20A single phase circuits Three phase circuits shall be considered as 3 x 20A single phase circuits Reduced EMC Protection Preferred Solution

20 European Standards: EMC Compliance No Barrier Open Metallic Perforated Metallic Solid* Metallic Cat 7/7A Cables EMC Class D Shielded Cables EMC Class C U/UTP Cables EMC Class B Cable Type Not Known EMC Class D 10mm 8mm 5mm 0mm 50mm 38mm 25mm 0mm 100mm 75mm 50mm 0mm 300mm 225mm 150mm 0mm * 1.5mm Wall Thickness

21 European Standards: EMC Compliance 25 x 20A Power Cables in Riser No Barrier Open Metallic Perforated Metallic Solid Metallic* Cat 7/7A Cables EMC Class D Shielded Cables EMC Class C U/UTP Cables EMC Class B 20mm 16mm 10mm 0mm 100mm 76mm 50mm 0mm 200mm 150mm 100mm 0mm * 1.5mm Wall Thickness

22 European Standards: EMC Compliance 10 x Three Phase Circuits No Barrier Open Metallic Perforated Metallic Solid Metallic* Cat 7/7A Cables EMC Class D Shielded Cables EMC Class C U/UTP Cables EMC Class B 60mm 48mm 30mm 0mm 300mm 228mm 150mm 0mm 600mm 450mm 300mm 0mm * 1.5mm Wall Thickness

23 EMC Compliance: Is it that important..? Active Equipment & EMC Switches, laptops etc have shielded connectivity IP Convergence equipment have shielded connectivity Is it really that important..? EN 55011:2009/A1:2010 EN 55011:2009/A1:2010 EN :2012 EN :2011 EN 55024:2010 EN :2010 EN :2010 EN :2010 EN :2011 EN 50498:2010 EN 55020:2007/A11:2011 EN :2010 EN :2001/A1:2011 EN :2004/AC:2007

24 Independent Testing: UTP Versus Shielded Shielded Cables Versus U/UTP Cables Channel Type U/UTP U/UTP U/UTP F/UTP S/FTP S/FTP Insertion Loss Margin (db) 9,4 8,8 8,6 8,6 10,5 15,5 PS NEXT (db) 3,2 5,5 8,2 7,8 5,8 6,2 TCL (db) 6,4 9,2 8,9 9,6 5,45 10,4 RL Margin (db) 4,3 8,8 9,5 3,4 6,9 8,2 PS ANEXT (db) ,93 27,33 76,0 79,0 Coupling Attenuation (db) 21,5 45, ,0 76, Findings Failed to Qualify U/UTP Showed significantly lower ANEXT and Coupling Attenuations Shielded systems offer High Coupling Attenuation and extraordinary ANEXT Performance

25 Independent Testing: UTP Versus Shielded 10GBaseT Power Separation Test Level in kv 5,00 4,50 4,00 3,50 3,00 2,50 2,00 1,50 1,00 0,50 MESH Cable Tray E 3 E 2 E 1 0,00 0,0 cm 3,5 cm 5,0 cm 8,0 cm 30,0 cm 50,0 cm Distance Between Power & Data Cables System 01: U/UTP System 02: U/UTP System 03: F/UTP System 04: S/FTP System 05: S/FTP

26 ISO 11801: Length Recommendation 15m minimum length for the permanent link What about large telecommunication rooms? What about between cabinets in the data centre? Siemon Z-MAX System Short 3m minimum length with guaranteed channel performance above 3dB (ISO limits). That is almost 6dB over ANSI/TIA Standards for NEXT 10dB Guaranteed ANEXT performance Fully compliant to ISO Amd 1 & Amd 2. Fast Termination

27 Copper: Power over Ethernet EN For copper cables operating temperatures above 20 o C the length of the backbone (installed cable) should be reduced: - 0.2% per o C for screened cables and, - 0.4%.per o C (20 o C to 40 o C) & 0.6% (40 o C to 60 o C) for U/UTP cables Question: What is the average temperature range in the summer and add to this the heat effects that will be caused by PoE

28 Power feeding BAS devices Current on individual conductors shall be limited to values that will not cause the temperature of any part of the cable to exceed the temperature rating of the cable Bundling of cables further reduces current carrying capacity Installed cabling used for BAS applications shall not be used to supply continuous power in excess of 100 VA # #

29 Transmission and field test requirements Cabling Subsystems type A & B performance should be performed using permanent link requirements between Distributor and equipment outlet or between Distributor and SCP When links are tested, the test shall be performed without a bridge or bus connections Refer to EN for information on transmission and field testing requirements

30 Zone boxes Zone box capacity is determined by: Number of work areas supported by a CP Number of BAS devices supported by an SCP Connection scheme (i.e. Interconnects or cross-connects You will also need to consider: Accessibility Security

31 Coverage area and planning The Coverage Area is defined as the space served by one BAS device A single cabling Subsystem may serve more than one coverage area Each BAS application required for the building project should be considered when determining the density of coverage areas and devices BAS devices may have overlapping coverage areas depending on their application Spare growth capacity should also be considered when designing the cabling infrastructure #

32 Zone box location Zone box location can be based upon guidance provided in ISO/IEC 24704, EN and TIA TSB-162 for wireless access point positioning A coverage area radius of 12 meters is generally recommended as an optimum size to accommodate most converged cabling networks #

33 EN Recommended coverage areas Premises Areas SCP Area Served by SCP (a) Notes Plant Room 5m 2 Contains air handlers, chillers, boilers, pumps, fans, compressors etc. Dedicated Office 25m 2 The area served in open office may be greater than 25m 2 Retail 25m 2 Personnel management may require reduction in area served Hotel 25m 2 Area served may vary if service is centrally managed Hospital 25m 2 Average value: Each type of hospital should be specifically designed Classroom 25m 2 Average value: Each type of classroom should be specifically designed Indoor Parking 25m 2 Industrial 50m 2 Area served will depend on manufacturing process, building design and environment (a) The SCP should be either a room or the areas shown within a large room/space

34 Connections to BAS devices It is paramount to ensure that the coverage area cable or the equipment cord is compatible with the BAS device Special connectors may be required to connect to the BAS device #

35 Spaces and distributors Spaces containing Distributors should serve coverage areas for the same floor in which the telecommunications cables resides These rooms should be optimized to support the installation and administration of BAS cabling as well as associated equipment including the BAS controller #

36 So what is the point of all this..? #

37 ConvergeIT: Cost Savings CCTV company wins 40 IP cameras and DVR 11,000 plus cable installation ( 270 per cable run) - 10,800 Door access company wins 60 doors 13,500 plus cable installation 18,000 ( 300 per shielded cable run) - 18,000 Fire Controller/management system with 100 detectors 20,500 plus cable installation ( 300 per shielded cable run) - 30,000 Additional cable install cost 58,800 Data Cable Installer Cost 33,000

38 ConvergeIT: Standards Compliance EN Recommends that: 300mm wide tray per 3m length Average length of 55m Requires 19 lengths Average installed cost per 55m - Total 10, Additional tray required for CCTV and Door Access Addition tray required for fire protection and BMS Total 89, Including Cable Mains Power Cabling ICT Cabling Auxiliary Circuits Sensitive Circuits

39 ConvergeIT: Cost Savings Project Saving of 56, By switching to ConvergeIT Project Saving 37% of cabling works

40 Case study of an intelligent building 145,000 square foot# Eight-stories# 1500 people capacity# BAS System with 2500 points# Peripheral devices on an IP network# 400 FIRE DEVICES# 400 speaker devices# 42 cameras# 46 access control card readers# 15 intruder alarm points# *Case study data courtesy of Sinopoli and Associates

41 Case study results CAPEX# 24.2% less expensive to install integrated systems# 4.5% reduction in construction costs for the whole building# Mostly derived from labor savings# OPEX# 37% operational cost savings due to faster maintenance and upgrade implementations (MAC) work# # *Case study data courtesy of Sinopoli and Associates

42 Summary Compliments of CABA, Bright Green Buildings convergence of Green and intelligent Buildings

43 ConvergeIT:

44 Converged Network! Systems & Services! Electric Works - Sheffield! 29 th January 2014!