Wired To Enable Djay Split Output Mode

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Wired To Enable Djay Split Output Mode Windows 7
Wired To Enable Djay Split Output Mode Download

more.. Pro Advice • Guitar & Bass Mods • How-Tos • Guitars • Pickups & Accessories • Humbucker • Mod Garage • Humbucker-equipped • February 2017

Fig. 1 — illustration courtesy of singlecoil.com

Jul 13, 2013 Not just another splitter cable, the Griffin DJ Cable is wired to enable the Split Output function in djay, and simultaneously hear both what the PA is playing and the track you are cueing up. If the DisplayPort output is a Dual mode DisplayPort then it has the ability to recognize and adjust the signal to HDMI when a passive adapter cable is connected. I mentioned this in an earlier video and said that I got lucky. I bought a passive adapter cable and it worked. Sometimes it will and sometimes it won’t.

This month we’re going to explore four ways to configure any humbucker that has 4-conductor wiring. (Note: These wiring schemes are not intended for an old-school humbucker with 2-conductor wiring, but rather the modern humbucker that allows coil-splitting and other wiring mods.)

For starters, let’s review our terminology. Looking at a humbucker from the front, we call the lower coil “south” and the upper coil “north.” The south coil is always the “screw side,” while the north coil is the “slug side.” The latter is named for the type of magnetic material used on this coil. Each coil is wrapped with very fine wire, and this wire has a start and a finish. This results in a total of five wires coming from the humbucker:

• North coil start plus north coil finish.

(3) Settings - Access djay’s settings (e.g. Split Output mode, in-App Stores, General, Library, MIDI, Transition and the Master Volume) (4) Record - Start a new recording or access your previously recorded mixes. You can export your recordings via iTunes File Sharing or open them in other apps via the “Open In.” feature. Jul 13, 2013 Not just another splitter cable, the Griffin DJ Cable is wired to enable the Split Output function in djay, and simultaneously hear both what the PA is playing and the track you are cueing up. Mar 19, 2020 Windows 10 Open the Power User Menu (Windows Key + X) or the start menu, and select Settings. The Windows settings will open. Select System from the settings window. From the Display section, choose Detect (if you see it) to register the second monitor. There's also a chance that the monitor's already there. With Split Output mode enabled, the djay app sends the master output to the left channel, and the cue output to the right channel. This lets you cue songs through your headphones independently of the mix that's going through the speakers. At the same time, you can hear everything that's going on. No DJ would want to be without it! Griffin GC35873 DJ Splitter Cable for pre-cueing on iPad,iPhone and iPod Touch. Made for the djay app by Algoriddim, DJ Cable lets you cue up your next track and hear what's playing, at the same time. Our DJ Cable is wired to enable djay's Split Output function, so you can cue up independently of the speaker mix.

• South coil start plus south coil finish.

• Ground.

The bare wire or braided shield always goes to ground—there’s no exception—so that leaves us with four wires to play with. Having access to the start and finish of each coil wire not only makes it easy to solve potential out-of-phase issues (a subject we’ll cover in another column), but it also gives you the option to wire up your humbucker in one of four different ways. If you’re ambitious, you can use a switch to put several options at your fingertips.

The south coil is always the “screw side,” while the north coil
is the “slug side.”

Every pickup company uses its own color-code scheme for these four wires. This makes discussing humbucker wiring a little more confusing than necessary, but that’s the way it is. As usual, I’ll use the Seymour Duncan color code as a quasi-standard. You should be able to get color-code information for your pickups from their maker, and there are several charts available on the internet that let you compare color-code schemes from different manufacturers. You can use such charts to translate the following wirings into whatever color code corresponds to your particular brand of humbucker. Fortunately that’s not too hard—you only need to know which color wire on your pickup indicates the start or finish of which coil. Once you have that info, you can draw up a reference chart to decode this column’s wirings.

Here’s the Seymour Duncan 4-conductor humbucker color code:

• North coil start is black; north coil finish is white.

Wired to enable djay split output mode 1

• South coil start is green; south coil finish is red.

Ride original soundtrack. • Ground is bare wire.

Fig. 1 sums up what we’ve covered so far in the Seymour Duncan format. Now let’s walk through the four ways you can wire up a humbucker. Ready?

Standard humbucker wiring: both coils connected in series. This is the default wiring in almost every guitar loaded with one or more humbuckers because it produces a warm, fat tone with maximum output while offering hum-cancelling capability. (It’s also the factory standard for all humbuckers with 2-conductor wiring consisting of only hot and ground.)

Fig. 2 — illustration courtesy of singlecoil.com

Here are the connections for series wiring (Fig. 2):

• North coil start is the hot output.

• North coil finish and south coil finish are soldered together and taped off (this is the series link).

• South coil start is soldered together with the bare wire going to ground.

“Single-coil” humbucker wiring: both coils connected in parallel. This option gives you a single-coil-like tone, but still retains hum-cancelling capability. It doesn’t deliver a crystal-clear Strat or Tele tone, but to my ears it at least resembles a single-coil pickup—maybe closer to a P-90 than to a standard single-coil. Every type of humbucker sounds a little different when wired this way, so it’s simply a matter of giving it a try to determine if you like the sound.

Fig. 3 — illustration courtesy of singlecoil.com

Parallel wiring (Fig. 3) requires the following connections:

• North coil start and south coil finish are soldered together as the hot output.

• North coil finish and south coil start are soldered together with the bare ground wire.

Coil-splitting humbucker wiring #1: splitting to the south coil. This wiring splits the humbucker in half, shunting one coil to ground and leaving the other coil engaged like a true single-coil pickup. In this mode, the hum-cancelling function is no longer active, so you’ll get the hum and noise of any single-coil pickup. But don’t expect a true Strat or Tele tone: If that’s your goal, investigate the special breed of humbuckers that are made out of two real single-coil pickups. The downside of this type of pickup is that it doesn’t sound great in full humbucker mode, so, as we’re so often reminded, it’s about compromise.
Splitting to the humbucker’s south coil, which is the screw side, is only recommended for neck pickups. (You’ll learn why we’re excluding the bridge pickup when we get to our fourth wiring scheme.) Let’s also remember that in most guitars with neck humbuckers, the south, screw-side coil lies closest to the neck.

Fig. 4 — illustration courtesy of singlecoil.com

For this coil-splitting wiring (Fig. 4), you need the following connections:

• South coil start is the hot output.

• North coil start, north coil finish, and south coil finish are soldered together with the bare ground wire.

Coil-splitting humbucker wiring #2: splitting to the north coil. This wiring follows the same concept as our previous coil-splitting recipe, but leaves the north coil active—that’s the slug side. This version is recommended for a bridge humbucker because pole-piece slugs deliver a fuller sound than pole-piece screws.

Fig. 5 — illustration courtesy of singlecoil.com

Here are the connections for our second coil-splitting wiring (Fig. 5):

• North coil start is the hot output.

• North coil finish, south coil start, and south coil finish are soldered together with the bare ground wire.

Well, that’s it. In a future column we’ll explore how to integrate and control all these options with the help of a switching device. And, of course, we’ll learn how to compensate for possible out-of-phase issues that can occur when you combine several humbuckers or a humbucker with a single-coil. But next month, we’ll dig into a project designed to make a Telecaster more sonically flexible. Until then .. keep on modding!

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To enable fast, seamless connections between desktops and mobile devices to external equipment, Windows 10 supports single cable docking and wireless docking. Interoperability is the key goal of the docking recommendations included here. These recommendations comprise both system and dock recommendations to ensure that a user can confidently dock their desktop system devices and their mobile system devices.

A dock is a device that is intended to enhance the productivity of a system. At a minimum, a dock has the followiing capabilities:

Contains a display-out option or a built-in monitor
Allows the user to connect to external peripheral devices

The dock manufacturer is responsible for properly advertising and marketing the type of display and peripheral devices that are supported by the dock.

Wired docking

A wired docking configuration uses a single connection to a dock. The connection is either through a cable or a device to an adjacent dock attachment. The dock provides ports for input devices, such as mice and keyboards, and for output devices like displays and printers. Better docking equipment provides a power connection, for both use and charging of the device, and a wired network connection.

Wired docking features to consider:

Use of a single cable from the device to the dock
Support for phone, tablet, and laptops
Wired or wireless mouse and keyboard input
Multiple connections on the dock
Monitor outputs using HDMI, DisplayPort, or both
A power connection to the device
An Ethernet port

Overall recommendations

The device-to-dock connection should be USB Type-C. The introduction of the USB Type-C connector allows us to truly reach a single-cable solution that supports docks, displays, data devices, and power for the majority of portable systems (phones, tablets, and laptops). We expect the largest changes in the wired docking space to be around USB Type-C alternate modes, with minor changes coming with updates of graphics standards.

USB Type-C introduced the concept of alternate modes (protocols other than USB over a symmetrical and reversible Type-C connector and cable), but because this technology is still “young,” we expect to see other alternate modes defined in the future. As more alternate modes are added, we will continue to reevaluate our USB Type-C recommendations.

Currently, we are recommending that DisplayPort over Type-C be used as the alternate mode for docks and displays. Although we do allow docks and displays to use other USB Type-C alternate modes, these devices must be able to fall back to the DisplayPort over Type-C alternate mode to ensure interoperability. For example, Thunderbolt 3 docks and displays must still work when the dock or display is connected to a system that only supports DisplayPort over Type-C alternate mode.

Additionally, Windows 10, version 1607 supports Indirect Display over USB, so any dock that supports Indirect Display over USB must also have a fallback to DisplayPort. Indirect Display is a simple user-mode driver model to support monitors that are not connected to traditional graphics processing unit (GPU) display outputs. An example would be a USB dongle connected to a PC that has a regular Video Graphics Array (VGA), Digital Visual Interface (DVI), High-Definition Multimedia Interface (HDMI), or DisplayPort monitor attached to it. The Indirect Display interface works over all USB ports, including Type A and Type-C (with and without alternate mode). For more information about Indirect Display, see Indirect Display Driver Model Overview.

As HDMI and DisplayPort protocol specifications mature, our recommendations will change to take advantage of new features.

Wired docking system recommendations

All systems should meet at least the minimum hardware requirements and the Windows Hardware Compatibility Specifications. In addition to these requirements, we recommend that systems work with docks built to the wired docking recommendations. This section covers what additionally is needed on the system side.

System connection to the dock	The system should include at least one USB Type-C port that supports USB Host or USB Dual Role/USB On-The-Go (OTG). All USB Type-C ports should include support for the following: USB Data, with USB 3.1 Gen 2 being optimal USB Power Delivery (PD) power sink to allow systems to charge using USB-C from dock, so that a user only needs to connect one wire to their system to be productive for several hours DisplayPort Alternate Mode, pin assignment C, D, E, and F, with support for High Bit Rate (HBR) and High Bit Rate 2 (HBR2) signaling on those pin assignments, and the ability to source DisplayPort on at least two DisplayPort lanes for all supported pin assignments For systems with multiple USB Type-C ports, we recommend that all ports support the specifications above. If the specifications are not supported by all of the included USB Type-C ports, we recommend that these ports be visually differentiable to the user as defined in the USB-IF Trademark License Agreement under the section “Logo Guidelines for USB Type-C Products and Cables that Support Alternate Modes.” If you plan on including an alternate mode other than DisplayPort over USB Type-C alternate mode, review the fallback requirements in the Overall recommendations section above. For more information about implementing USB Type-C, see Developing Windows drivers for USB Type-C connectors on MSDN.
RAM	The system should have at least 2 GB of RAM.
Flash storage	The system should have at least 16 GB of nonremovable flash memory.
Audio/video latency	Audio or video latency should not exceed 80 milliseconds.

Wired dock (device) recommendations

The end goal of these docking recommendations is to maximize compatibility and interoperability. For docks that support other USB Type-C alternate modes (such as Thunderbolt 3), we strongly recommend they also support the following specifications in addition to ensure interoperability with all systems. These recommendations are in addition to the Windows Hardware Compatibility Specifications.

Dock connection to the system	We recommend that the dock connect to the system by using USB Type-C. At a minimum, the dock's USB Type-C connector should support the following features: USB Data (USB 3.1 Gen 2) to enable USB-connected peripheral devices USB Power Delivery (PD) power provider for charging a system while it is docked, with a minimum power of 30W, following the PD power rules (see section 10 of the Power Delivery specification); for additional information, see the 'Power budget policy' section USB Type-C DisplayPort Alternate Mode, pin assignments C and D, with support for HBR and HBR2 signaling on those pin assignments (and pin assignments E and F, if supported), and the ability to sink DisplayPort on at least two DisplayPort lanes for all supported pin assignments If you plan on including an alternate mode other than DisplayPort over USB Type-C alternate mode, review the fallback requirements in the Overall recommendations section above.
Dock (downstream) I/O ports	The downstream device I/O ports between a dock and other peripheral devices should always interoperate with any system that meets the system docking requirements. For peripheral device connectivity, a combination of at least three USB Type-A and/or USB Type-C 3.1 Gen 2 ports The USB Type-C ports should provide a minimum of 15W to devices through USB Type-C current, and optionally USB PD; see the Power Budget Policy Section. The USB Type-A ports should provide either 2.5, 4.5, or 7.5 W to devices according to the port type defined in the USB Battery Charging 1.2 standard; see the Power Budget Policy Section. USB Type-C power input; see the 'Power' recommendation Ethernet connectivity (optional), to ensure that you choose a USB Ethernet adapter that works on mobile devices Audio output port (optional) An external monitor connection, if the dock does not include a built-in monitor (see the 'Display output' recommendation)
Power	For the power input to the dock, we have the following recommendations: The power input port should be a USB Type-C port. If the power input port is a USB Type-C port and cannot be used to connect to the host system or to other devices, it should be clearly marked so that the user can easily determine that it is the power input port. If the power adapter that ships with the dock is a USB Type-C power adapter, it must follow the PD Power Rules (see Section 10 of the Power Delivery specification). For example, a 36W supply must support the following contracts: 15V/2.4A, 9V/3A, and 5V/3A. The power adapter that ships with the dock should budget enough power to charge the system connected to the dock along with other downstream devices connected to the dock, according to the following guidelines: For the upstream USB-C host, budget a minimum of 30W (15V/2A). For each downstream USB-C port, budget 15W (5V/3A). For each downstream USB-A 2.0 port, budget 2.5W (5V/0.5A). For each downstream USB-A 3.0 port, budget 4.5W (5V/0.9A). For each downstream USB-A charging downstream port, budget 7.5W (5V/1.5A). For example, if a dock has a USB-C port for the host (30W), two USB-A 3.0 ports (2 x 4.5W), and a USB-A charging downstream port (7.5W), the power adapter should budget at least 46.5W. The dock’s upstream Type-C port that connects to the host should be capable of performing data and power role swaps, and it should request to be a PD power source when it is connected to the host. The dock’s upstream Type-C port that connects to the host should support fast role swap so that functionality provided by connected devices is not interrupted when external power is connected or disconnected.
Power budget policy	A dock’s power budget is the total amount of power that the dock can provide to the connected host and connected devices. The dock can receive its power budget from a combination of internal sources and external sources (for example, a battery and a power adapter, respectively). A power budget policy is required to allocate power in a consistent manner if the total power requirements of the connected host and connected devices exceeds the dock’s power budget, such as if a 30W charger is connected to the dock that is connected to a PC that is requesting 27W, while a device is requesting 15W. The following are recommendations for the power budget policy: If a host is charging from the dock and a device is connected that would cause the dock’s total power budget to be exceeded, the dock should determine whether the amount of power needed by the connected device can be satisfied by reducing the amount of power provided to the host. If the answer to the question is yes, reduce the amount of power provided to the host by the amount needed to meet the power requirements of the connected device, and notify the host accordingly. The PD power rules may cause the voltage offered to the host to be reduced and/or cause the host to stop charging from the dock altogether. Later, if the dock’s power budget is increased, or if another device is disconnected allowing the dock to reclaim some power, the dock should allocate that power back to the host and notify it accordingly. If the answer to question is no, do not provide any power to the connected device. Later, if the dock’s power budget is increased, or if another device is disconnected allowing the dock to reclaim some power, the dock should redetermine whether it can allocate sufficient power to the connected device that was not initially powered. If a host is not already charging from the dock and charging the host would exceed the dock’s total power budget, the dock should allow the host to enumerate the dock and the connected devices on the dock as normal, and the dock should keep providing power to the connected devices instead of charging the host. Later, if the dock’s power budget is increased, or if another device is disconnected allowing the dock to reclaim some power, the dock should redetermine whether it can allocate sufficient power to charge the host. In general, docks should avoid sinking power from hosts. However, if the dock is not connected to external power, it can attempt to sink power from the host so that its connected devices can function.
Display output	The connection from the dock to an external monitor should be provided by at least one digital connector that is at a minimum either HDMI 1.4 or DisplayPort 1.2 (supporting DP++). However, if the device is a docking display (that is, the dock and the monitor are in the same device), it is optional to include an additional display output to enable a multimonitor experience. The resolution supported should at a minimum be 1080p, regardless of whether the display is externally connected through an external video port or is internally connected to the display. If you plan on including an alternate mode other than DisplayPort, review the fallback requirements in the Overall recommendations section above.
Audio output	If the dock has one or more 3.5 mm audio output jacks, a minimum of stereo outputs need to be supported at 16 bits / 44.1 kHz format. Audio support in the dock must comply with the USB Audio Device Class 2 specification and implement jack insertion detection as outlined in the specification.
Audio/video latency	The audio and video latency of devices attached either through USB (or for audio through a 3.5 mm jack) should not exceed 40 milliseconds.
Touchpad (optional)	If the dock has an embedded touchpad, the touchpad needs to be a precision touchpad (PTP). We recommend that IHVs follow the PTP implementation guide to create PTPs that are on par with traditional laptop PTPs. The Device Integration, Experience Customization, and Module Design for HLK Requirements sections in the implementation guide describe the best practices for creating a touchpad that is superior aesthetically and experience-wise.

All these recommendations are in addition to the touchpad requirements detailed in the minimum hardware requirements.

Wireless docking

Like a wired dock, a wireless dock has ports for input and output peripherals. The connection to the device is wireless only. The dock does not provide power or a wired network connection to the device.

Wireless docking features to consider:

A wireless connection from the device to the dock
Support for phone, tablet, and laptops
Wired or wireless mouse and keyboard input
Monitor outputs using HDMI, DisplayPort, or both