Here are some of the pictures:
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There are more such photos at SDF's Type 071 LPD thread.
There are also some other photos coming out. They are nothing new, but good shots of 805 and 530.
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徐少将称:据他所知,四代机十年前就已经上马,而且推力比10以上的发动机研制没有问题,最近通过航空航天的最新经验,我国在电子和隐身方面都取得了重大进展。他最后说,歼十四五年内问世。
凤凰卫视"军情观察室"节目透露,中国拒绝与俄罗斯和印度共同研制新一代作战飞机,原因是缺乏技术保密性。
徐光峪表示,中国方面在第四代战机的研制已经进行了多年,目前就一些关键性技术难题已经突破,其中包括大推力比的发动机,甚至推力比已经超过10,另外在隐形技术、电控技术都获得了较大的突破,在将来5到8年的时间里中国自己研制的第四代战机即可成军。
事实上,中国战斗机的研制上目前已经达到了俄罗斯的水平,接近美国研发水平,只是由于实际国情,军事生产不能如同美国产业化,中国自己研制的歼十单发战斗机性能超过俄的米格29,而俄罗斯的双发重型多功能战斗机也都是在苏27基础上改进,中国现在已经掌握了苏27的生产工艺。
所以在拿着大头钱去让俄罗斯研制新型飞机,遏制自己自主研发能力?那只有傻瓜才会做的,如果俄罗斯人真有成意,除非他把其研发技术共享,研制产品技术共享,产品知识产权共享,才有可能与共同研制。
徐光裕将军 解放军防化学院原院长 解放军总参谋部退役军官、中国军控裁军协会理事 北京三略管理科学研究院高级顾问 著书[核战略纵横]国防大学出版社
Analysis: China eyes new Russian tech
by Andrei Chang
Hong Kong (UPI) Nov 23, 2007
A Chinese military source based in Beijing has said the People's Liberation Army Air Force is negotiating with the Russian Sukhoi Aircraft Company on three new projects.
Military observers based in Moscow and Beijing say they believe the recent nadir of military cooperation between China and Russia is only temporary. China will have to rely on Russia to develop its military technologies, as Beijing has no other alternative.
The first new project involves Su-33 shipborne fighters. Experts from the Russian aviation industry are convinced that China is about to start the construction of an aircraft carrier.
"Up to the present, on the issue of the Su-33, China and Sukhoi have had three rounds of negotiations and have reached some agreement," said the source.
Nonetheless, he did not disclose what specific progress has been made in the negotiations, merely confirming that additional rounds of talks will be held. A high-level source from Sukhoi confirmed his company is most interested in discovering whether the Chinese want to purchase whole Su-33 fighters or only require Su-33 parts, and whether they will request the transfer of production technology or design blueprints.
Other sources from the Chinese military industry said that several plans were involved in the negotiations on the Su-33. One of them is that China will buy a small number of Su-33, say 10 to 24, and later request that production technologies be transferred. However, the Chinese strategy is to use some of the Su-33 technology to develop their own shipborne fighter based on the J-11B assembled domestically.
The second project under negotiation involves the newest Su-35 fighter. At the MAKS 2007 International Aviation and Space Salon held at the Zhukovsky Air Base near Moscow in August, Chinese delegates took photos and videos of the Su-35 virtually every day.
"Several Chinese delegations have visited Sukhoi and raised technical questions," the Sukhoi company representative said. He said the two sides have reached a consensus and are now working on export plans.
"At least in the foreseeable future, China's indigenous aviation technologies will not be able to produce combat aircraft similar to the Su-35," he said. "Our attitude on this issue is the same as the case of the Su-33; that is, we are only interested in exporting whole Su-35s. This is not what the Chinese delegates hoped for. They hoped to import only certain subsystems, for instance the radar systems or the engines."
The third project concerns the PLA Navy's plan to import more Su-30MK2 fighters, or upgraded variants of the aircraft. No progress has been made on this as yet, however. A plan for China to import Su-30MK3 fighters, which was negotiated earlier, has not been carried out so far.
The possibility that the navy will continue importing Su-30MK2s or Su-30MK3s appears slim, mainly because it has already started to receive China-made JH-7A fighters. Meanwhile, the upgrade of the J-11B fighter aircraft has been very comprehensive. The fighter is now capable of launching precision attacks on battleships, and can basically meet the combat requirements of the navy fleet. China may not resume the import of Su-30MK2s unless the cost of the J-11B remains too high or comes close to the cost of the Su-30MK2.
Is there any possibility that the PLA Air Force may upgrade its existing Su-30MK2s and J-11s, or the Indian Air Force's Su-30MKIs, to a combat platform close to the Su-35 standard?
Yury Bely, a general designer at Russia's NIIP Radar Design Bureau, agreed to discuss the question. "It is impossible to import the Su-35's radar system only," he said. Bely stressed that it would be more feasible to import brand new Su-35s than to try upgrading the Su-30MK2.
The Su-35 is equipped with the H035 passive phased array radar system, which has extremely powerful detection capability, Bely pointed out. The average output power of this radar is 5 kW, with peak output at 20 kW; thus the output power of the Su-30MKI and Su-30MK2 would be insufficient. When the H035 radar was tested on Su-30MK No. 503, the detection range was as far as 290 kilometers with 1 kW power output, he said.
in the middle of November, SSF used more than 10 ships and planes to go through a realistic exercise using real troops, real missiles. The exercise were under extremely complex electronic environment and bad weather. This is to train new techniques, new doctrine, new cooperation. This will allow the combat capability to go up for the fleet.
This system can track up to thirty targets, engaging the four most urgent. It will minimize the salvo length to engage as many targets as possible and is thought to be able to deal with two pairs of sea-skimming missiles as little as five seconds apart.
本报讯 近日,中国一航沈阳飞机设计研究所提前完成型号飞机换装发动机及鉴定试飞,飞机顺利转场;取得阶段性成果。一航沈阳所所长、型号总师孙聪荣获中国一航“总经理特别奖”。
型号飞机发动机换装项目是中央军委、中国一航决策的重点科研项目,从机上改装到试飞结束仅有一个月时间,周期短,任务重。
一航沈阳所充分发挥总师单位的主导作用,以高度的政治责任感和使命感,积极发扬团队合作精神,与兄弟单位通力合作,精心部署,加大管理力度,对每个工作环节制定详细的日计划,组织精兵强将专项跟踪,盯飞、盯数据、盯进度,跟产现场,服务现场,在较短时间内先后完成了方案论证、成品技术协调、改装发图与现场技术支持、地面试验、空地勤培训、试飞技术支持等各项工作。
在调板系统一项成品换装及技术鉴定试飞的关键阶段,改进的成品在试飞中出现斜板系统故障。参研人员结合飞参数据模拟飞行状态检查、分析故障机理,确定故障系控制器“收紧”与起调转换软件判故逻辑存在缺陷造成,协助承制单位制定并落实解决措施,完成试验验证,排除了故障,为提前完成阶段任务赢得了宝贵时间。
在项目实施过程中,一航沈阳所所长、型号总师孙聪精心筹划,现场指挥,对技术核心问题和影响进度的关键问题当场决策。当无损检测发现板材复合材料分层时,他立即组织专业人员集智攻关。改进方案确定后,孙聪亲自带队现场办公。由于措施得当,及时解决这一影响飞行安全的“瓶颈”问题,确保了项目阶段任务顺利完成。
一航沈阳所党委书记褚晓文多次带队深入一线,慰问指导,组织调配,鼓舞士气。各职能机关大力支持,密切配合做好后勤保障,促进问题加速解决。全所参研人员克服一个个难关,为项目顺利进行铺平了道路,创造了换装交付周期最短的奇迹。
JANE'S MISSILES AND ROCKETS - DECEMBER 01, 2004
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Russia moves to vertical-launch Shtil
Miroslav Gyürösi
Russia is offering a vertical-launch (VL) version of the Shtil-1 naval surface-to-air missile (SAM) system, writes Miroslav Gyürösi. The move from a system based on trainable launchers to one based on below-deck VL modules is similar to that taken by the US Navy in the mid-1980s when it switched from a Mk 26 trainable launcher to a VL system for the sixth and subsequent Ticonderoga-class Aegis cruisers.
Russian Public Joint Stock Company DNPP (Dolgoprudnenskoye naucsno - proizvodstvennoye predpriyatie), which is part of the Almaz-Antey Air Defence Concern, developed the new 9M317ME SAM as an upgrade for the Shtil-1 naval air-defence system. Developed by the Altair Naval Radio Electronics Scientific Institute Public Joint Stock Company, which is also a member of the Almaz-Antey Air Defence Concern, Shtil-1 is an improved version of the earlier Shtil system that is the export variant of the M-22 Uragan system fitted to the Project 956 (Sovremenny-class) destroyers.
The 9M38 missile was developed in the 1970s to be a common round for the land-based 9K37 Buk (SA-11 'Gadfly') and naval Uragan/Shtil (SA-N-7 'Gadfly') system. It used a configuration similar to that of the US Standard Missile, with cruciform wings of long chord and short span, plus cruciform tail surfaces. In the land-based system, the 9M38 was fired from 9A38 and 9A310 self-propelled launch vehicles, while the naval Shtil and Shtil-1 systems used a trainable launcher fed by a below-deck loading system based on 12-cell drum magazines.
In the early 1990s, development started on an improved 9M317 missile able to replace the 9M38. This armed the Buk-M1-2 (SA-17 'Grizzly') system, which entered service with the Russian Army in 1998. The 9M317 was similar in configuration to the 9M38 but the cruciform wings were of much smaller chord and span.
The new 9M317ME missile is being marketed as a further development of the older 9M38 and 9M317 but the changes are on a scale that makes the round almost a new missile. It is designed to be fired from a cylindrical container/launcher mounted in a cell within the new Shtil-1 VL system. This arrangement provides a much higher rate of fire than the original trainable launcher and magazine system used in Shtil and Shtil-1. The latter could fire a missile every six seconds, but the 9M317ME-based system being offered for Sovremenny-class destroyers can fire rounds at one-to-two-second intervals.
The new launch technique has required drastic changes to the configuration of the missile. The long-chord wings have been replaced by vestigial fixed surfaces located not on the missile centrebody but near the rear of the airframe just ahead of the cruciform tail surfaces. These fixed surfaces may be intended to control the airflow passing the tail fins. The latter move to steer the missile - the same control scheme used on the 9M38 - but are folded to allow the round to be stored in the container/launcher.
The 9M317ME is 5.18 m long and 360 mm in diameter. The tail surfaces have a span of 820 mm when deployed.
After the round leaves the VL, a spring mechanism unfolds the tail surfaces and four gas-control vanes operating in the motor efflux turn the missile towards the required direction of flight. Once this turnover manoeuvre is completed, the gas-control vanes are no longer used. Subsequent flight control is via the moving tail surfaces.
A dual-mode solid-propellant rocket motor based on a more energetic charge than that used in the 9M38 provides the missile with a maximum speed of Mach 4.5 (1,550 m/s), a significant increase over the Mach 3.0 (1,230 m/s) of the older missile.
Guidance remains a combination of inertial and semi-active radar (SAR) homing. Inertial guidance is used in the early stages of flight and then the SAR seeker is activated to complete the interception. If the missile is being fired against long-range targets, it can receive mid-course updates while flying under inertial control. Launch weight of the 9M317ME is 581 kg. It is armed with a 62 kg warhead initiated by a dual-mode (active or semi-active) radar proximity fuze, or a contact fuze.
The range of the modernised Shtil-1 system is between 3.5-32 km, while the altitude coverage is from 5 m up to 15 km. These limits are set not by the performance of the missile but by the capabilities of the existing shipboard illuminating radars. This suggests further growth potential if the system is upgraded or if new radars are added.
The VL version of Shtil-1 is being offered for surface ships with displacement of more than 1,500 tonnes, providing protection against aircraft, helicopters, fast patrol boats and anti-ship missiles. It can also control the ship's guns. Publicly, no claims are being made for an anti-ballistic missile (ABM) capability, but the land-based 3M317 missile is reported to have successfully engaged Smerch artillery rockets and a ballistic missile during tests conducted in the mid-1990s. The VL system's ability to cope with tactical ballistic-missile threats may be limited by the performance of the existing shipboard radars.
The basic VL module contains 12 9M317ME missiles but, as with the unmodified Shtil and Shtil-1 systems, the upgrade is being offered in a series of optional configurations, which add greater numbers of MR-90 Orekh ('Front Dome') target-illumination radars and additional VL modules. All variants use target information from the ship's 3D surveillance radar.
Vertical-launch Shtil-1 configurations
Technical characteristic Option number
1 2 3 4 5 6 7 8
Reaction time, [seconds] 5 - 10 5 - 10 5 - 10 5 - 10 5 - 10 5 - 10 5 - 10 5 - 10
Firing interval [seconds] 2 - 3 2 - 3 2 - 3 1 - 2 1 - 2 1 - 2 1 - 2 1 - 2
Number of target channels 2 4 4 6 8 8 10 12
Magazine capacity [rounds] 12 24 36 48 - 72 72 108 108 - 144 144
Number of VL modules 1 2 3 4 - 6 6 9 9 - 12 12
Russian Manufacturers Proposing Chinese Companies Participate in Creation of New Mi-46 Transport Helicopter
The Moscow Mil’ Helicopter Plant is proposing foreign companies, including Chinese, cooperation for the creation and production of the Mi-46 intermediate class heavy transport helicopter, a representative of the Russia company, Viktor Egorov, reported at the Aviation Expo China 2007 international aviation exhibition which is taking place in Beijing.
According to him, it is planned to use the experience of the development and tests of the Mi-38 and Mi-26 in the construction of the new aircraft. The new helicopter is intended for the transport of cargos over 10 – 12 tonnes.
The Moscow plant is cooperating closely with China, where more than 100 vehicles have been delivered over the past 3 years. Recently there was a demonstration in Harbin (the administrative center of the Heilongjiang province) of the largest series produced helicopters in the world, the Mi-26T. Last year, a contract was signed for the leasing transfer to the PRC of this helicopter for 3 years.
Shaanxi Aircraft has again delayed the roll-out of its Y-9 medium transport as a result of ongoing design changes, but expects to deliver its first production example to the Chinese military in 2009, says company vice-president Liu Bin.
"We have slowed down the development speed of this aircraft to redesign a lot of new things," said Liu during the 19-22 September Aviation Expo in Beijing. Improved avionics and an "integrated display panel" are among the new technologies being incorporated with the Y-9, he said, adding: "we want to make sure the aircraft is perfect."
Shaanxi originally planned to fly the Y-9 - a stretched development of its Y-8F commercial freighter - in 2006, but late last year extended its development schedule into 2007 due to what it described as "small changes" to the aircraft's design (Flight International, 14-20 November 2006).
Liu said the Y-9's first flight is now set to take place during 2008, and revealed that Beijing has already agreed to order the type for delivery from 2009. He declined to reveal how many of the aircraft will be acquired, however, noting that negotiations are continuing.
To be powered by four Chinese-built Wojiang FWJ-6C engines driving six-bladed JL-4 composite propellers, the tail ramp-equipped Y-9 will be capable of carrying a 20t cargo, including land vehicles and other equipment. The transport can also be configured with 106 troop seats, 72 stretchers or to deploy paratroopers, says Shaanxi.