Taller tough die cast boxes from Hammond

Taller tough die cast Stomp Box boxes from Hammond

Taller tough die cast Stomp Box boxes from Hammond

Hammond has added taller versions of its 1590 ‘Stomp Box’ range of tough die cast metal equipment boxes with coloured finishes.

The range is designed for guitar effect foot pedals, and the latest one is 119 x 94 x 42mm, 12mm taller, than the traditional version with the same footprint to accommodate break-before-make switches that stop conducted interference when operated.

“All are rugged, easy to machine enclosures, well able to cope with the demanding on-stage environment in which they will be used. All types are finished in a smooth gloss polyester powder paint, which does not chip after machining and provides a good surface for labels and silk screening,” said Hammond.

Different coloured and shaped boxes allow quick identification.

Colours are:

  • Cobalt blue (RAL 5013)
  • Green (RAL 6024)
  • Light grey (RAL 7035)
  • Orange (RAL 2009)
  • Purple (RAL 4008)
  • Red (RAL 3011)
  • Yellow (RAL 1021)
  • and custom.

Shapes are:

  • Rectangular (five sizes including the new taller version)
  • Trapezoidal (wide and narrow)
  • Octagonal (one size)

To maintain RFI integrity, the painted finish is only applied to the external surfaces.

A lap joint seals the units to IP54, and an optional sealing gasket kit can be added to rectangular versions to raise this to IP65.

Other options include factory machining or factory silk screening on any model. AutoCAD and PDF dimensioned drawings can be downloaded assist with the design of modifications.

Use for preset effects such as distortion, wah-wah, delay, chorus and phaser is expected.

steve bush

Cavendish Kinetics raises $36m for RF R&D

Cavendish RFMEMStuner CK_MEMS_processCavendish Kinetics, the RF MEMS specialist, has completed its final funding round with a strategic raise of $36 million, to accelerate the development of its next generation RF components.

The company’s new generation of RF components adds a range of virtually loss-less RF MEMS switches to its portfolio of RF MEMS tuners.

Together the new components will enable  radio front-end applications, including the high-performance tuning of antennas, filters and power amplifiers as well as ultra-low loss switching of the RF signal path, it says.

“There is a critical need for low loss RF switching as OEMs design radios for 4G and 5G capability, and commercialising our ultra-low loss RF MEMS switch to meet this need is a major focus for Cavendish, now that our first generation RF MEMS tuners have fully ramped and are shipping commercially,” says Paul Dal Santo, CEO of Cavendish Kinetics.

“SOI switch technology is fundamentally limited by its high insertion loss, and is not well suited for RF front-ends requiring high voltage handling or high linearity. Our RF MEMS switches will deliver a 10x improved ‘figure of merit’ compared to what today’s SOI switches can achieve, transforming the way LTE radios are designed.”

Cavendish’s new generation of RF MEMS components is based on a simple enhancement of its ‘switchlet array’ design, which has a MEMS cycle life of over 100B cycles.

The company’s next generation of RF MEMS tuners will now provide increased tuning range and RF voltage handling, enabling additional radio performance gains.

Samples of Cavendish’s new generation RF MEMS components will be available in the first quarter of 2016, and ramp into volume production in the second half of 2016.

See alsoCavendish Kinetics’ RF MEMS tuner passes 100bn cycle test

 

david manners

Cavendish Kinetics raises $36m for RF R&D

Cavendish RFMEMStuner CK_MEMS_processCavendish Kinetics, the RF MEMS specialist, has completed its final funding round with a strategic raise of $36 million, to accelerate the development of its next generation RF components.

The company’s new generation of RF components adds a range of virtually loss-less RF MEMS switches to its portfolio of RF MEMS tuners.

Together the new components will enable  radio front-end applications, including the high-performance tuning of antennas, filters and power amplifiers as well as ultra-low loss switching of the RF signal path, it says.

“There is a critical need for low loss RF switching as OEMs design radios for 4G and 5G capability, and commercialising our ultra-low loss RF MEMS switch to meet this need is a major focus for Cavendish, now that our first generation RF MEMS tuners have fully ramped and are shipping commercially,” says Paul Dal Santo, CEO of Cavendish Kinetics.

“SOI switch technology is fundamentally limited by its high insertion loss, and is not well suited for RF front-ends requiring high voltage handling or high linearity. Our RF MEMS switches will deliver a 10x improved ‘figure of merit’ compared to what today’s SOI switches can achieve, transforming the way LTE radios are designed.”

Cavendish’s new generation of RF MEMS components is based on a simple enhancement of its ‘switchlet array’ design, which has a MEMS cycle life of over 100B cycles.

The company’s next generation of RF MEMS tuners will now provide increased tuning range and RF voltage handling, enabling additional radio performance gains.

Samples of Cavendish’s new generation RF MEMS components will be available in the first quarter of 2016, and ramp into volume production in the second half of 2016.

See alsoCavendish Kinetics’ RF MEMS tuner passes 100bn cycle test

 

david manners

5G will not just be 4G with faster download speeds

26aug15RTafazolli

Professor Rahim Tafazolli

Professor Rahim Tafazolli, director of the 5G Innovation Centre (5GIC), tells Electronics Weekly in an exclusive interview that it is now apparent that 5G will be a step-change in mobile technology.

“What was done in the last 30 years ending in 4G technologies was justifiable,” says Tafazolli. “But to carry on for the next 30 years in the same way is not justifiable.”

“I don’t think of it as 5th generation mobile, but the first generation of something new that combines wideband and narrow band data communications, short range and long range links all on the one network. I call it ‘connectivity’,” says Tafazolli, who heads up the 5GIC at the University of Surrey.

The 5GIC is the UK’s main research activity into the technologies needed for a roll-out of 5G mobile services in 2020.

“This will be the beginning, but work will carry on, it will evolve to 2025 and beyond,” says Tafazolli.

Whereas 4G is still essentially about connecting mobile phones and tablets more effectively. 5G will not only be concerned with mobile, but connecting to buildings, cars and even robots.

“The car industry will have a big say in the creation of 5G, this did not happen before,“ says Tafazolli.
5G mobile communications and the internet of things (IoT) are closely related in terms of technologies used and the introduction of services, says Tafazolli.

“IoT and 5G should not be put in separate silos, ideas on this are converging,” says Tafazolli.

At the moment research into 5G mobile communications technology is taking place at various centres all over the world – Europe, US, China and Japan.

But first discussions on potential global standards will start in the 3GPP standards body in September.

“Global 5G research is still taking place in isolation, but this will change. Various groups have different technology favourites, and the 3GPP standardisation discussions will start in September. I expect technology selection will start in 2016,” said Tafazolli.

And the different research groups are all competing for the prize of commercial adoption. “It is a business, and we need a return on our investment,” says Tafazolli.

The Surrey-based 5GIC already has 12 patents relating to potential 5G radio and network architecture technologies.

“We will test these on our own test-bed and we would like these technologies to be part of the standard,” says Tafazolli.

Tafazolli expects to have the technology in Surrey to demonstrate 5G transmission from mobile to network and back to mobile by 2018.

According to Tafazolli, this is creating new challenges for the mobile industry.

“Creating a technology which combines narrowband data connections used for IoT with wideband data is a huge challenge. The resulting standards will not be straight-forward,” says Tafazolli.

In the past the standards have focused on cellular communications. With 5G this will all change; it will incorporate Wi-Fi and unlicensed bands, says Tafazolli.

“Spectrum licensing will need to change, IPR (intellectual property rights) policy will need to change,” says Tafazolli.

Professor Tafazolli and his team at the 5GIC represents the UK’s attempt to be a main player in the creation of 5G technology. It has set-up its own standards activity which is chaired by a representative from operator Telefonica

“We have already contributed to the IEEE standards group and we plan to contribute to 3GPP when it starts work in September,” says Tafazolli.

The creation of the first 5G test network at the University of Surrey is the next big step. “The test -bed will allow UK companies to test technology,” says Tafazolli.

“The hope is to get the UK’s 5G ecosystem – business and technical – on the same level as the rest of the world. The mechanism is now in place and we are talking to UK firms to join and become a part of this,” says Tafazolli.

 

Richard Wilson

5G will not just be 4G with faster download speeds

26aug15RTafazolli

Professor Rahim Tafazolli

Professor Rahim Tafazolli, director of the 5G Innovation Centre (5GIC), tells Electronics Weekly in an exclusive interview that it is now apparent that 5G will be a step-change in mobile technology.

“What was done in the last 30 years ending in 4G technologies was justifiable,” says Tafazolli. “But to carry on for the next 30 years in the same way is not justifiable.”

“I don’t think of it as 5th generation mobile, but the first generation of something new that combines wideband and narrow band data communications, short range and long range links all on the one network. I call it ‘connectivity’,” says Tafazolli, who heads up the 5GIC at the University of Surrey.

The 5GIC is the UK’s main research activity into the technologies needed for a roll-out of 5G mobile services in 2020.

“This will be the beginning, but work will carry on, it will evolve to 2025 and beyond,” says Tafazolli.

Whereas 4G is still essentially about connecting mobile phones and tablets more effectively. 5G will not only be concerned with mobile, but connecting to buildings, cars and even robots.

“The car industry will have a big say in the creation of 5G, this did not happen before,“ says Tafazolli.
5G mobile communications and the internet of things (IoT) are closely related in terms of technologies used and the introduction of services, says Tafazolli.

“IoT and 5G should not be put in separate silos, ideas on this are converging,” says Tafazolli.

At the moment research into 5G mobile communications technology is taking place at various centres all over the world – Europe, US, China and Japan.

But first discussions on potential global standards will start in the 3GPP standards body in September.

“Global 5G research is still taking place in isolation, but this will change. Various groups have different technology favourites, and the 3GPP standardisation discussions will start in September. I expect technology selection will start in 2016,” said Tafazolli.

And the different research groups are all competing for the prize of commercial adoption. “It is a business, and we need a return on our investment,” says Tafazolli.

The Surrey-based 5GIC already has 12 patents relating to potential 5G radio and network architecture technologies.

“We will test these on our own test-bed and we would like these technologies to be part of the standard,” says Tafazolli.

Tafazolli expects to have the technology in Surrey to demonstrate 5G transmission from mobile to network and back to mobile by 2018.

According to Tafazolli, this is creating new challenges for the mobile industry.

“Creating a technology which combines narrowband data connections used for IoT with wideband data is a huge challenge. The resulting standards will not be straight-forward,” says Tafazolli.

In the past the standards have focused on cellular communications. With 5G this will all change; it will incorporate Wi-Fi and unlicensed bands, says Tafazolli.

“Spectrum licensing will need to change, IPR (intellectual property rights) policy will need to change,” says Tafazolli.

Professor Tafazolli and his team at the 5GIC represents the UK’s attempt to be a main player in the creation of 5G technology. It has set-up its own standards activity which is chaired by a representative from operator Telefonica

“We have already contributed to the IEEE standards group and we plan to contribute to 3GPP when it starts work in September,” says Tafazolli.

The creation of the first 5G test network at the University of Surrey is the next big step. “The test -bed will allow UK companies to test technology,” says Tafazolli.

“The hope is to get the UK’s 5G ecosystem – business and technical – on the same level as the rest of the world. The mechanism is now in place and we are talking to UK firms to join and become a part of this,” says Tafazolli.

 

Richard Wilson

Thin sensor opens way for biometrics in phones

TN-343713_Ultra-thinNEXT2sensorForEnhancedNotebookIntegration_original

Thin sensor opens way for biometrics in phones

A Norwegian company believes it could have the answer for finger-print sensing in smartphones with a sensor design which is significantly thinner than existing designs.

Oslo-based Next Biometrics says the fingerprint sensor could have an impact on smartphone designs because it does not require a metal bezel to operate.

“Removing the bezel enables industrial designers to determine the size and shape of sensors simply by the designs of the opening in the smartphone back covers or notebook palm rests,” said Tore Etholm-Idsoe, CEO of Next Biometrics.

According to Tore Etholm-Idsoe, the sensors will now be virtually flush with the surroundings, sunken in only by 0.4 to 0.6mm.

“This combines great ID with the minimum depth needed for users to feel where to place the finger. Such minimum guidance for uniform finger placement is important for the user experience of any fingerprint system. This is especially true in the context of smartphones, which are used on-the-go,” said Tore Etholm-Idsoe.

The company has been using its development teams in Seattle and Taipei on the design. The Asian market will be an important target for the company.

Richard Wilson

Thin sensor opens way for biometrics in phones

TN-343713_Ultra-thinNEXT2sensorForEnhancedNotebookIntegration_original

Thin sensor opens way for biometrics in phones

A Norwegian company believes it could have the answer for finger-print sensing in smartphones with a sensor design which is significantly thinner than existing designs.

Oslo-based Next Biometrics says the fingerprint sensor could have an impact on smartphone designs because it does not require a metal bezel to operate.

“Removing the bezel enables industrial designers to determine the size and shape of sensors simply by the designs of the opening in the smartphone back covers or notebook palm rests,” said Tore Etholm-Idsoe, CEO of Next Biometrics.

According to Tore Etholm-Idsoe, the sensors will now be virtually flush with the surroundings, sunken in only by 0.4 to 0.6mm.

“This combines great ID with the minimum depth needed for users to feel where to place the finger. Such minimum guidance for uniform finger placement is important for the user experience of any fingerprint system. This is especially true in the context of smartphones, which are used on-the-go,” said Tore Etholm-Idsoe.

The company has been using its development teams in Seattle and Taipei on the design. The Asian market will be an important target for the company.

Richard Wilson

Panasonic motion sensors pick their target

Panasonic motion sensors pick their target

Panasonic motion sensors pick their target

Panasonic’s AMA and AMB series motion sensors for human motion detectors have trigonometric background suppression, which means they are unaffected by changing scenes or by people passing by outside the detection range.

Likely applications include the detection of the presence of an individual in front of machines, at automatic doors or in security gates and as non-contact switches for hygiene and medical applications.

Changing light conditions and bright daylight measuring up to 30k lux at the sensor’s surface will not affect the performance of the sensor.

Priced from £12.78 the sensors are available at Farnell element14.

For adjacent use there is a version with external trigger input.  The timing of the signals can be adjusted so that the beam frequency of each adjacent sensor will not interfere with the other.

The proximity switches have a detection distance of 5 to 200cm with NPN and PNP transistor outputs.

Operating Voltage ranges from 4.5 to 5.5Vdc or in a wider voltage version from 5.5 to 27 Vdc.

The sensors measure 10mm wide and 20mm high.

 

 

Richard Wilson

Panasonic motion sensors pick their target

Panasonic motion sensors pick their target

Panasonic motion sensors pick their target

Panasonic’s AMA and AMB series motion sensors for human motion detectors have trigonometric background suppression, which means they are unaffected by changing scenes or by people passing by outside the detection range.

Likely applications include the detection of the presence of an individual in front of machines, at automatic doors or in security gates and as non-contact switches for hygiene and medical applications.

Changing light conditions and bright daylight measuring up to 30k lux at the sensor’s surface will not affect the performance of the sensor.

Priced from £12.78 the sensors are available at Farnell element14.

For adjacent use there is a version with external trigger input.  The timing of the signals can be adjusted so that the beam frequency of each adjacent sensor will not interfere with the other.

The proximity switches have a detection distance of 5 to 200cm with NPN and PNP transistor outputs.

Operating Voltage ranges from 4.5 to 5.5Vdc or in a wider voltage version from 5.5 to 27 Vdc.

The sensors measure 10mm wide and 20mm high.

 

 

Richard Wilson

Power supply will operate at -40 deg C

Power supply will operate at -40 deg C

Power supply will operate at -40 deg C

Recom’s latest 2 or 3W power supply modules have extended operating temperature range own to -40°C.

The RAC02-SE/277 and RAC03-SE/277 modules have an input voltage range of 85-305Vac (120-430Vdc) and are available with output voltages of 3.3, 5, 12 and 24Vdc.

In idle mode the modules consume maximum 40mW. The insulation strength between the input and the output is 3kVAC/min.

The modules are available as DIP units with standard pinout or as wired units.

An input filter is designed to make the modules conform to the requirements of EN55022 Class B. They can thus be operated without the need for additional external components and are short-circuit-proof with automatic restart after fault elimination.

The modules are certified according to IEC/EN/UL 60950 and come with a three year warranty.

 

Richard Wilson