This powerful high speed USB oscilloscope combines fast sampling up to 500 MS/s with high resolutions of 12, 14 and 16 bit, a large memory of 64 MSamples and an extremely accurate built-in 40 MHz 14 bit Constant Data Size (CDS) arbitrary waveform generator with 24 V peak to peak output, generating true form signals. The oscilloscope supports continuous streaming measurements up to 20 MS/s and can be synchronized with other oscilloscopes using the CMI interface to form a multi channel combined instrument with synchronized timebase. The CMI interface is available by default on the Handyscope HS5. Optionally, the Handyscope HS5 can be delivered with SureConnect connection test and resistance measurement on each channel. The flexibility and quality that the Handyscope HS5 offers is unparalleled by any other oscilloscope and function generator in its class.
 

Handyscope HS5 key specifications

This best in class High Resolution USB oscilloscope with integrated Arbitrary Waveform Generator gives the best specifications available in the industry, for a limited budget. The flexibility and quality that the Handyscope HS5 offers is unparalleled by any other oscilloscope and function generator in its class.
 

Key specifications:

The Handyscope HS5 can be synchronized with other oscilloscopes using the CMI interface to form a multi channel combined instrument with synchronized timebase. The CMI interface is available by default on the Handyscope HS5.

Optionally available: SureConnect connection test: real time probe connection verification while measuring and fast and accurate resistance measurement on all channels.

Models

Package contents

The Handyscope HS5 models come with the following items:

Handyscope HS5 features

Many instruments in one device

With the Multi Channel oscilloscope software, the world's most sophisticated measuring software, the Handyscope HS5 can be used as: High Resolution USB Oscilloscope, multimeter, spectrum analyzer, data logger/transient recorder, protocol analyzer and Arbitrary Waveform Generator. This powerful and compact measuring instrument can solve almost any measurement problem.

High accuracy

Industry's first 1 ppm oscilloscope

With a time base accuracy of 1 ppm, frequency and timing can be measured very accurately. The time base of the Handyscope HS5 is 25 to 100 times more accurate than comparable instruments of the competition.

Coupling multiple instruments to a large combined instrument does not affect the time base accuracy. The timing deviation between the coupled instruments is 0 ppm.

Low distortion Arbitrary Waveform Generator

The Handyscope HS5 is the first High Resolution USB oscilloscope with built-in 30 MHz low distortion function generator. The built-in Arbitrary Waveform Generator uses CDS signal synthesis technology, developed by TiePie engineering, resulting in the best signal fidelity in its class, generating the true form of your signals. With spurious distortion as low as -85 dB at 100 kHz signal frequency, a very flat amplitude spectrum and a rise time of 8 ns, the low distortion function generator creates signals that approach perfection.

Figure 3: Handyscope HS5 function generator sine wave with extremely low spurious.

Combined with an output voltage of 24 V_pp, a resolution of 14 bit at 240 MS/s and a waveform buffer of 64 MSamples, this makes the Handyscope HS5 Arbitrary waveform generator truly a high quality low distortion function generator. Standard signal shapes like sine wave, square wave, triangle, pulse, DC and noise are available. When a custom signal shape is required, this can be created in the 64 million samples large memory or by loading a previously measured signal from the oscilloscope.

Very fast 20 MSamples per second streaming data logger

The Handyscope HS5 supports continuous streaming measurements with a speed up to 20 MS/s, which makes it possible to measure endlessly, without any memory limits. Data can be stored directly to disk using the multi channel integrated data logger, which is only limited by the amount of available disk space.

During recording, the measured signal can be viewed and analyzed in real time. The high continuous sampling frequency is high enough to log serial communication signals such as CAN bus. Using streaming measuring, difficult problems can easily be measured, traced back and analyzed.

Combining multiple Handyscope HS5s

The Handyscope HS5 is equipped with a sophisticated CMI synchronization bus, allowing to connect multiple Handyscope HS5s to each other by means of coupling cables, to use them as a combined instrument. All instruments will measure at the same sample frequency (0 ppm deviation!) The maximum number of instruments is only limited by the number available USB ports.

Combining the instruments is fully automatic. When the Multi Channel oscilloscope software is started, the Handyscope HS5s coupled with TP-C50H Coupling cables are identified and automatically combined to a larger instrument. The synchronization bus is automatically terminated at both ends with the correct impedance, so there is no need to manually place terminators. This unique possibility to create e.g. an 8 channel instrument is only available with the Handyscope HS5 and no other USB oscilloscope.

High performance digital multimeter

With its high resolution of 16 bits, the Handyscope HS5 can be used as a comprehensive and accurate high performance digital multimeter, with measurements like RMS, peak-peak, Max, Min, Mean, Variance, Standard deviation, Frequency, Duty cycle, Crest factor, Rise time, Fall time, dBm, etc. Both numerical and gauge displays are available in the multimeter. The stable and 1 ppm accurate time base of the Handyscope HS5 enable very accurate frequency and time measurements. These qualities make an extra multimeter or frequency counter redundant and make the Handyscope HS5 unique in its class.

You can make as many high performance multimeter displays as you want, in any size and different layouts.

Spectrum analyzer

The Handyscope HS5 definitely brings an end to the idea that spectrum analyzers are expensive, hard to control and difficult to understand. The large flexibility of the spectrum analyzer makes it not just suitable for measuring high frequency signals of transmitters and receivers, but also for viewing signals that are invisible in the time domain display of an oscilloscope.

When troubleshooting, usually an oscilloscope is used, but when the amplitude of the signal of interest is small, it may be badly visible on an oscilloscope and drown in noise. When viewed with a spectrum analyzer in the frequency domain however, all spectral components of the signal and their magnitude can be clearly observed.

Figure 4: While invisible in the time domain, a small signal is clearly visible in the spectrum.

Analyzing signals in the frequency domain is very useful for example when measuring disturbances caused by a switched power supply. The switching signal of the switched mode power supply can be measured by holding the probe close to the inductor of the power supply and can be stored as a reference signal. When this reference signal is displayed besides a live spectrum during measuring, the switching signal is easily distinguished from other signals in the device under test. When taking measures to reduce the unwanted influence of the power supply, the suppression can be observed directly with the Handyscope HS5 USB spectrum analyzer.

This method of troubleshooting in the frequency domain is only possible (and unique for the Handyscope HS5) because of the Handyscope HS5's unique combination of features:

• 250 MHz bandwidth
• 14 and 16 bit resolution
• 32 Million samples memory
• very fast FFT calculations.

The high resolution of the Handyscope HS5 (14 and 16 bit) and its large large record length of 32 MSamples make it possible to perform a spectral analysis with up to 16 million frequency components with a very high resolution in the frequency domain. A spectrum with a dynamic range of more than 120 dB can be measured, which makes the Handyscope HS5 unique in its class.

Large memory of 32 MSamples per channel

When measuring at high sample rates, a long record length/large memory is necessary to be able to record a complete signal in the acquisition buffer. Where most oscilloscopes have 2.5 kSamples or 100 kSamples memory, the Handyscope HS5 has 32 MSamples memory per channel. This gives the user 300 to 10000 times more memory. An advantage of a large memory is that once-only fast phenomena can be captured completely. For example complete serial communications, like CAN bus signals, can be measured all in one record to be reviewed and analyzed afterwards.

The large memory results in the advantage of a large dynamic range in the USB spectrum analyzer, which enables troubleshooting in the frequency domain.

The unlimited superzoom feature of the Handyscope HS5 allows to zoom in to individual samples, no matter what record length is used.

Figure 5: The same signal viewed simultaneously with several zoom factors up to 30000

Figure 1 shows the same signal four times with different zooming factors. The lower right graph shows just 0.01 ms of the total 300 ms, a zoom factor of 30000 and still provides enough detail for accurate signal analysis.

SureConnect on each channel

The SureConnect connection test feature of the Handyscope HS5 tells you immediately whether your test probe or clip actually makes electrical contact or not. No more doubt whether your probe doesn't make contact or there really is no signal.

This is useful when surfaces are oxidized and your probe cannot get a good electrical contact. Simply activate the SureConnect and you know whether there is contact or not. Also when back probing connectors in confined places, SureConnect immediately shows whether the probes make contact or not.

SureConnect is optionally available on the Handyscope HS5.

Protocol analyzer

The various serial protocol analyzers of the Handyscope HS5 can be used to analyze and debug serial data buses. The data is displayed in an elaborate table with information on the serial data. Locating "wrong" data packets has become very easy with a protocol analyzer. For each developer or service technician this is a welcome option. Protocol analyzers for CAN bus data, J1939, RS232, I²C communication and various other serial data communications are available with the Handyscope HS5 protocol analyzer.

Figure 6: Decoded CAN data from a measurement of both CAN-low and CAN-high.

Oscilloscope and AWG synchronization

The High Resolution USB oscilloscope and the arbitrary waveform generator in the Handyscope HS5 can be easily synchronized by setting the trigger source of the oscilloscope to one or more generator trigger events: start, stop and new period. This synchronization makes it possible for example to perform a sweep, and directly measure the frequency spectrum. In the shown measurement, a sweep from 1 MHz to 7 MHz is generated and injected in a resonance filter of 4 MHz of which the output is measured. As this is a real time synchronized scope with AWG measurement, a drop in resonance frequency is immediately visible when the resonance filter is heated.

Figure 7: HS5 oscilloscope measurement of a resonance filter fed with a 1 MHz to 7 MHz sweep from a Handyscope HS5 AWG.
 

Mathematical operations for in-depth signal analysis

The Multi Channel oscilloscope software for the Handyscope HS5 offers a large variety of mathematical operations like adding, subtracting, multiplying, dividing, integrating, differentiating, determining the square root, determining the logarithm, etc. These mathematical operations are available in the form of I/Os, also called processing blocks, and can be used to process the measured signals and reference signals.

Besides the basic mathematical operations, there are also several processing blocks to perform other, more complex mathematical operations on the data, like determining minimum or maximum values, limiting to specified range, averaging, filtering, applying gain and offset, resampling etc.

Icon	Operation	Icon	Operation
	Gain/Offset		Average
	Add/Subtract		LowPass
	Multiply/Divide		MinMax
	SQRT		Limiter
	ABS		Resampler
	Differentiate		DataCollector
	Integrate		FFT
	Log		DutyCycle

Combining these mathematical processing blocks gives unrivaled possibilities in constructing complex mathematical operations to analyze your measurements thoroughly and obtain all the information you need from your data. The results of the mathematical operations can be displayed in one or more graphs, can be displayed in numeric displays, in tables and can be written to disk in various common file formats.

Figure 8: Using processing blocks to calculate the area of an XY graph.

Figure 1 shows a measurement performed with the Handyscope HS5. Processing block are used to determine the area of an XY graph, using multiplying, integrating and differentiating I/Os. The area is indicated in the value window: 16 V².

Handyscope HS5 specifications

The tables below show detailed specifications of the Handyscope HS5. Jump to acquisition specifications, trigger specifications, function generator specifications or general specifications.

Acquisition system
Number of input channels	2 analog
CH1, CH2	BNC
Type	Single ended
Resolution	8, 12, 14, 16 bit user selectable
DC Accuracy	0.25 % (0.1 % typical) of full scale ± 1 LSB
Ranges	±200 mV to ±80 V full scale
Coupling	AC/DC
Impedance	1 MOhm / 25 pF ± 1 %
Maximum voltage	200 V (DC + AC peak < 10 kHz)
Maximum voltage 1:10 probe	600 V (DC + AC peak < 10 kHz)
Bandwidth (-3dB)	at 75 % of full scale input
Ch1	250 MHz
Ch2	100 MHz
AC coupling cut off frequency (-3dB)	±1.5 Hz
SureConnect	Optionally available (option S)
Maximum voltage on connection	200 V (DC + AC peak < 10 kHz)
Resistance measurement	Optionally available (option S)
Ranges	100 Ohm to 2 MOhm full scale in 1-2-5 sequence
Accuracy	1 % of full scale
Response time (to 95%)	< 10 µs
Maximum sampling rate	Depending on model
Model HS5-540
8/12 bit, measuring one channel	500 MS/s
8/12 bit, measuring two channels	200 MS/s
14 bit	100 MS/s
16 bit	6.25 MS/s
Model HS5-530
8/12 bit, measuring one channel	500 MS/s
8/12 bit, measuring two channels	200 MS/s
14 bit	100 MS/s
16 bit	6.25 MS/s
Model HS5-220
8/12 bit, measuring one channel	200 MS/s
8/12 bit, measuring two channels	100 MS/s
14 bit	50 MS/s
16 bit	3.125 MS/s
Model HS5-110
8/12 bit, measuring one channel	100 MS/s
8/12 bit, measuring two channels	50 MS/s
14 bit	20 MS/s
16 bit	1.25 MS/s
Model HS5-055
8/12 bit, measuring one channel	50 MS/s
8/12 bit, measuring two channels	20 MS/s
14 bit	10 MS/s
16 bit	625 kS/s
Maximum streaming rate	Depending on Handyscope HS5 model and computer 1
Model HS5-540
8 bit, measuring one channel	40 MS/s
8 bit, measuring two channels	20 MS/s
12/14 bit, measuring one channel	20 MS/s
12/14 bit, measuring two channels	10 MS/s
16 bit	6.25 MS/s
Model HS5-530
8 bit, measuring one channel	40 MS/s
8 bit, measuring two channels	20 MS/s
12/14 bit, measuring one channel	20 MS/s
12/14 bit, measuring two channels	10 MS/s
16 bit	6.25 MS/s
Model HS5-220
8 bit, measuring one channel	20 MS/s
8 bit, measuring two channels	10 MS/s
12/14 bit, measuring one channel	10 MS/s
12/14 bit, measuring two channels	5 MS/s
16 bit	3.125 MS/s
Model HS5-110
8 bit, measuring one channel	10 MS/s
8 bit, measuring two channels	5 MS/s
12/14 bit, measuring one channel	5 MS/s
12/14 bit, measuring two channels	2 MS/s
16 bit	1.25 MS/s
Model HS5-055
8 bit, measuring one channel	4 MS/s
8 bit, measuring two channels	2 MS/s
12/14 bit, measuring one channel	2 MS/s
12/14 bit, measuring two channels	1 MS/s
16 bit	625 kS/s
Sampling clock source
Internal	TCXO
Accuracy	± 0.0001 %
Stability	± 1 ppm over 0°C to 55°C
Time base aging	±1 ppm/year
External	LVDS, on auxiliary connectors
Input range	10 MHz
Memory
Standard model	128 KiSamples per channel
XM option	32 MSamples per channel 64 MSamples measuring one channel
Trigger
System	Digital, 2 levels
Source	CH1, CH2, OR, digital external, generator start, generator new period, generator stop
Trigger modes	Rising edge, falling edge, any edge, inside window, outside window, enter window, exit window, pulse width
Level adjustment	0 to 100 % of full scale
Hysteresis adjustment	0 to 100 % of full scale
Resolution	0.006 % (14, 16 bits) / 0.025% (12 bits)
Pre trigger	0 to 64 MSamples measuring 1 channel, 0 to 32 MSamples measuring 2 channels, 1 sample resolution
Post trigger	0 to 64 MSamples measuring 1 channel, 0 to 32 MSamples measuring 2 channels, 1 sample resolution
Trigger hold-off	0 to 63 MSamples, 1 sample resolution
Trigger delay	0 to 16 GSamples, 1 sample resolution
Segmented trigger	Available via LibTiePie SDK
Maximum number of segments	1024
Minimum segment length	1 sample
Maximum segment length	32 M / number of segments 64 M / number of segments measuring one channel
Trigger rearm time	Sample frequency dependent, < 700 ns on highest sample frequency
Digital external trigger
Input	Extension connector pins 1, 2 and 3
Range	0 to 2.5 V (TTL)
Coupling	DC
Jitter	Depending on source and sample frequency
Source = channel	≤ 1 sample
Source = external or generator
Sample frequency = 500 MS/s	≤ 8 samples
Sample frequency < 500 MS/s	≤ 4 samples
Sample frequency ≤ 100 MS/s	≤ 1 sample

1. On some computers, the highest streaming rates may not be available, due to computer restrictions.

Arbitrary Waveform Generator (independent from acquisition system)
Waveforms
Standard	Sine, square, triangle, pulse, noise, DC
Built-in arbitrary	Exponential rise and fall, sin(x)/x, cardiac, haversine, lorentz, d-lorentz
Signal characteristics
Sine
Frequency range	Depending on model
Model HS5-540	1 µHz to 40 MHz
Model HS5-530	1 µHz to 30 MHz
Model HS5-220	1 µHz to 20 MHz
Model HS5-110	1 µHz to 10 MHz
Model HS5-055	1 µHz to 5 MHz
Amplitude flatness	Relative to 1 kHz
< 100 kHz	±0.1 dB
< 5 MHz	±0.15 dB
< 20 MHz	±0.3 dB
< 30 MHz	±0.4 dB
< 40 MHz	±1 dB
Spurious (non harmonic)
< 100 kHz	-75 dBc
100 kHz to 1 MHz	-70 dBc
1 MHz to 10 MHz	-60 dBc
10 MHz to 15 MHz	-55 dBc
15 MHz to 20 MHz	-45 dBc
20 MHz to 30 MHz	-35 dBc
30 MHz to 40 MHz	-30 dBc
Square
Frequency range	Depending on model
Model HS5-540	1 µHz to 30 MHz, above 30 MHz not specified
Model HS5-530	1 µHz to 30 MHz
Model HS5-220	1 µHz to 20 MHz
Model HS5-110	1 µHz to 10 MHz
Model HS5-055	1 µHz to 5 MHz
Rise/fall time	< 8 ns
Overshoot	< 1 %
Variable duty cycle	0.01 % to 99.99 %
Asymmetry	0 % of period + 5 ns (@ 50 % Duty cycle)
Jitter (RMS)	< 50 ps
Triangle
Frequency range	Depending on model
Model HS5-540	1 µHz to 30 MHz, above 30 MHz not specified
Model HS5-530	1 µHz to 30 MHz
Model HS5-220	1 µHz to 20 MHz
Model HS5-110	1 µHz to 10 MHz
Model HS5-055	1 µHz to 5 MHz
Nonlinearity (of peak output)	< 0.01 %
Symmetry	0 % - 100 %, 0.1 % steps
Pulse
Period	100 ns to 1000 s
Pulse width	15 ns to 1000 s
Variable edge time	8 ns to 1 s
Overshoot	< 1 %
Jitter (rms)	< 50 ps
Noise
Bandwidth (typical)	30 MHz
Arbitrary
Frequency	Depending on model
Model HS5-540	0.4 nHz to 30 MHz
Model HS5-530	0.4 nHz to 30 MHz
Model HS5-220	0.4 nHz to 20 MHz
Model HS5-110	0.4 nHz to 10 MHz
Model HS5-055	0.4 nHz to 5 MHz
Length
Standard model	1 to 256 KiSamples
XM option	1 to 64 MiSamples
Maximum sample rate	Depending on model
Model HS5-540	240 MS/s
Model HS5-530	240 MS/s
Model HS5-220	200 MS/s
Model HS5-110	100 MS/s
Model HS5-055	50 MS/s
Rise/Fall time	< 8 ns
Nonlinearity (of peak output)	< 0.01 %
Settling time	< 8 ns to 10 % final value
Jitter (RMS)	< 50 ps
Common characteristics
Number of output channels	1 analog, BNC
DAC resolution	14 bit
Output range	-12 to +12 V (24 Vpp) at open circuit
Amplitude
Range	0.12 V (0.24 Vpp), 1.2 V (2.4 Vpp), 12 V (24 Vpp) at open circuit
Resolution	12 bit
Accuracy	0.4 % of range
DC offset
Range	-12 to +12 V at open circuit
Resolution	12 bit
Accuracy	0.4 % of range
Noise level
0.12 V range	900 µVRMS
1.2 V range	1.3 mVRMS
12 V range	1.5 mVRMS
Coupling	DC
Impedance	50 Ohm
Overload protection	Output turns off automatically when overload is applied. Instrument will tolerate a short circuit to ground indefinitely.
Burst
Waveforms	Sine, square, triangle, noise, arbitrary
Count	1 to 65535
Trigger	Software, external
Sweep	Available on models with extended memory option XM
Waveforms	Sine, square, triangle
Type	Linear, logarithmic
Direction	Up, down
Trigger	Software, external
Modulation
AM
Carrier waveforms	Sine, square, triangular
Modulating waveforms	Sine, square, triangular, noise, arbitrary
Modulating frequency	2 mHz to 20 MHz
Depth	0.0 % to 100 %
Source	Internal
FM
Carrier waveforms	Sine, square, triangular
Modulating waveforms	Sine, square, triangular, noise, arbitrary
Modulating frequency	2 mHz to 20 MHz
Peak deviation	DC to 20 MHz
Source	Internal
FSK
Carrier waveforms	Sine, square, triangular
Modulating waveforms	50 % duty cycle square
Modulating frequency	2 mHz to 20 MHz
Peak deviation	1 µHz to 20 MHz
Source	Internal
System characteristics
System	Constant Data Size
Memory
Standard model	256 KiSamples
Option XM	64 MiSamples
Operating modes	Continuous, triggered, gated
Maximum sampling rate	Depending on model
Model HS5-530	240 MS/s
Model HS5-220	200 MS/s
Model HS5-110	100 MS/s
Model HS5-055	50 MS/s
Sampling source	Internal TCXO
Accuracy	±0.0001 %
Stability	±1 ppm over 0°C to +55°C
Time base aging	±1 ppm/year
Multi-instrument synchronization
Maximum number of instruments	Limited by number of available USB ports
Synchronization accuracy	0 ppm
Interface
Interface	USB 2.0 High Speed (480 Mbit/s); (USB 1.1 Full Speed (12 Mbit/s) and USB 3.0 compatible)
Power Requirements
Power	From USB port or external input
Consumption	5 VDC 2000 mA max
External power	From second USB port or power adapter
Physical
Instrument height	25 mm (1 inch)
Instrument length	170 mm (6.7 inch)
Instrument width	140 mm (5.2 inch)
Weight	430 g (15 ounce)
USB cord length	1.8 m (70 inch)
I/O connectors
Channel 1, 2	BNC
Generator	BNC
USB	Fixed cable with USB 2.0 and USB 1.1 type A connector, 1.8 m
Extension connector	D-sub 9 pins female
Power	3.5 mm power socket
Auxiliary I/O connectors	2 x HDMI type C socket
System requirements
PC I/O connection	USB 1.1, USB 2.0 or newer
Operating system	Windows XP/Vista/7/8/10, 32 and 64 bits Linux (via LibTiePie SDK)
Environmental conditions
Operating
Ambient temperature	0 to 55°C
Relative humidity	10 % to 90 %, non condensing
Storage
Ambient temperature	-20 to 70°C
Relative humidity	5 % to 95 %, non condensing
Certifications and Compliances
CE mark compliance	Yes
RoHS	Yes
EN 55011:2009/A1:2010	Yes
EN 55022:2006/A1:2007	Yes
EN 61000-6-1:2007	Yes
EN 61000-6-3:2007	Yes
Package contents
Instrument	Handyscope HS5
Oscilloscope probes	2 x Oscilloscope Probe 1:1-1:10 - HP-9250
Accessories	Handyscope power supply, external power cable for USB port
Software	for Windows 2000/XP/Vista/7/8/10 on CD
Drivers	for Windows 2000/XP/Vista/7/8/10 on CD
Manuals	instrument manual and software user's manuals color printed and digital on CD
Customer service
TiePie engineering instruments are designed, manufactured and tested to provide high reliability. In the unlikely event you experience difficulties, the TiePie engineering instruments are fully warranted for three years.
This warranty includes	All parts and labor (excluding probes) No charge for return shipping Long-term 7 year support Upgrade to the latest software at no charge
Optionally available	Extension to five year warranty

 

Handyscope HS5 accessories

Several accessories are available for use with the Handyscope HS5. The most common related accessories, such as oscilloscope probes and current clamps are listed here. Refer to the products page to find all TiePie products.

• 
  Oscilloscope Probe 1:100 - HP-9258
• 
  Differential probe SI-9002
• 
  Oscilloscope Probe 1:1-1:10 - HP-9250
• 
  Current clamp TP-CC80
• 
  Current clamp TP-CC600
• 
  Accelerometer TP-ACC20
• 
  Handyscope power supply
• 
  TP-C50H Coupling cable
• 
  Rubber protector TP-RP-HS

Handyscope HS5 related articles

For more information about the Handyscope HS5, refer to the following articles. Several key aspects of the Handyscope HS5 are treated, such as the outstanding signal quality of the Handyscope HS5 CDS arbitrary waveform generator.
 

Handyscope HS5 models

The Handyscope HS5 is available with different combinations of maximum sampling speed, memory depth, maximum function generator signal frequency, SureConnect and extended 5 year warranty. All models are listed below and can be ordered directly from stock.

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