In response to a first reference voltage, a regulator regulates an output voltage of a line, so that the output voltage is approximately equal to a target voltage. In response to the output voltage rising above a second reference voltage, pull down circuitry draws current from the line. In response to the output voltage falling below the second reference voltage by at least a predetermined amount, the pull down circuitry ceases to draw current from the line. The first and second reference voltages are based upon a same band gap reference as one another.
The disclosures herein relate in general to electronic circuitry, and in particular to a method and circuitry for regulating a voltage.
A regulator can output a regulated supply voltage to a processor (e.g., one or more microprocessors, microcontrollers and/or digital signal processors). In one example, the regulator is specified to output the regulated supply voltage at 1.2 volts ("target voltage"). However, if an undershoot condition occurs (e.g., in which the regulated supply voltage is at least 36 millivolts below the target voltage), then the processor may automatically reset.
By comparison, the processor may tolerate an overshoot condition (e.g., in which the regulated supply voltage is more than a predetermined level above the target voltage), so long as the overshoot condition has a relatively short duration (e.g., measured in milliseconds). Nevertheless, if the processor has a step down (e.g., 500 mA in 1 μs) of load current, then it may cause the overshoot condition followed by the undershoot condition. To reduce the overshoot condition, one conventional technique uses a state machine to control a pull down (of the regulated supply voltage) for a predetermined constant duration, but the predetermined constant duration may be unsuitable if variation occurs in one or more environmental (e.g., process, voltage and/or temperature) conditions.
FIG. 1 is a schematic electrical circuit diagram of circuitry for regulating a voltage.
FIG. 2 is a first set of graphs for showing an operation of the circuitry of FIG. 1, in comparison to a conventional state machine technique.
FIG. 3 is a second set of graphs for showing an operation of the circuitry of FIG. 1 at different temperatures, in comparison to a conventional state machine technique at different temperatures.
FIG. 1 is a schematic electrical circuit diagram of circuitry, indicated generally at 100, for regulating a voltage VOUT of an output line 102. The circuitry 100 includes: (a) a regulator, indicated by dashed enclosure 104, for regulating VOUT; and (b) pull down circuitry, indicated by dashed enclosure 106, for adaptively drawing current from the line 102. In one embodiment: (a) the circuitry 106 is formed within a same integrated circuit as the regulator 104; and (b) the regulator 104 and the circuitry 106 are comparably affected by variation in one or more environmental conditions, such as process, voltage and/or temperature ("PVT") variations.
In the regulator 104, an amplifier AMP has an output node and first and second input nodes. The output node is connected to a gate of an n-channel field-effect transistor ("NFET"), namely M1. The first input node is connected to a reference voltage REF1=α·BG, where α is a constant, and BG is a band gap. The second input node is connected between first and second resistors whose resistances are R1 and R2 respectively.
A drain of M1 is connected to a voltage supply node VSUP. A source of M1 is coupled to a ground through the first and second resistors (having resistances R1 and R2) in series, as shown in FIG. 1. Also, the line 102 is connected to the second source/drain of M1. M1 operates as a power output stage. M1 is relatively large, which: (a) lowers a resistance (and, similarly, lowers a voltage drop) between M1's drain and source; (b) increases M1's capacity for conducting current (e.g., 1 amp); and (c) improves M1's transient response. Accordingly, M1's gate-to-source capacitance ("Cgs") and gate-to-drain capacitance ("Cgd") are relatively large.
In this example, the regulator 104 is specified to output VOUT=1.2 volts ("target voltage"), as a regulated supply voltage to a processor. Such processor's capacitance load and current load (e.g., ˜500 mA) are represented in FIG. 1 by a capacitor 108 and a current source 110, which are coupled between the line 102 and the ground. In response to REF1, AMP operates to regulate VOUT≈REF1·(R1+R2)/R2, so that REF1·(R1+R2)/R2 is the target voltage. For such operation, a voltage level of VSUP is greater than VOUT by at least a dropout voltage. Accordingly, the dropout voltage is a difference between: (a) a minimum voltage level of VSUP for such operation; and (b) VOUT.
In the circuitry 106, a comparator COMP has first and second output nodes and first and second input nodes. The first output node is connected to operate a switch 112. The second output node is connected to operate a switch 114. The first input node is connected to the line 102. The second input node is connected to a comparison voltage REF2=[ΔLOV]+REF1·(R1+R2)/R2, where ΔLOV is a predetermined level for detecting an overshoot condition, so that COMP detects the overshoot condition in response to VOUT exceeding REF1·(R1+R2)/R2 by at least ΔLOV. In the illustrative embodiments, REF2 is near (yet below) the permitted maximum level of VOUT from the regulator 104.
VSUP is coupled through a current source 116 to a drain of an NFET, namely M2. The drain of M2 is connected to a gate of M2. A source of M2 is connected to the ground. The line 102 is connected to a drain of an NFET, namely M3. A source of M3 is connected to the ground.
The gate of M3 is selectively: (a) connected to, and disconnected from, the gate of M2 by the switch 112; and (b) connected to, and disconnected from, the ground by the switch 114. For example, in response to VOUT rising above REF2 (VOUT>REF2): (a) a binary logic state of COMP's first output node ("+")=1, which closes the switch 112 to connect the gate of M3 to the gate of M2; (b) a binary logic state of COMP's second output node ("−")=0, which opens the switch 114 to disconnect the gate of M3 gate from the ground; and (c) accordingly, M3 turns on and operates as a current mirror of M2, which conducts a substantially constant amount of current from the current source 116.
In that manner, M3 operates as a pull down transistor for selectively drawing the pull down current from the line 102. In this example, while M3 is turned on, it rapidly pulls down ˜120 mA of current from the line 102.
Conversely, in response to VOUT falling below REF2−HVAL (VOUT≦REF2−HVAL, where HVAL is a predetermined hysteresis amount, which reduces sensitivity to transient glitches from higher bond inductances): (a) a binary logic state of COMP's first output node ("+")=0, which opens the switch 112 to disconnect the gate of M3 from the gate of M2; (b) a binary logic state of COMP's second output node ("−")=1, which closes the switch 114 to connect the gate of M3 gate to the ground; and (c) accordingly, M3 turns off, so that M3 ceases to draw the pull down current from the line 102.
In response to a larger overshoot condition, M3 remains turned on for a longer period of time. By comparison, in response to a smaller overshoot condition, M3 remains turns on for a shorter period of time. In that manner, the circuitry 106 is adaptive to the overshoot condition and controls M3's turn on time accordingly, which helps to reduce likelihood of an undershoot condition following the overshoot condition (e.g., in response to a step down of load current from 515 mA to 15 mA in 1 μs on the line 102).
For example, in controlling a start and duration of M3's turn on time, the circuitry 106 is not dependent on a conventional state machine technique. Instead, during normal operation of the regulator 104, the circuitry 106 controls the start and duration of M3's turn on time in response to COMP's comparison between REF2 and VOUT. REF1 and REF2 are based upon a same BG reference as one another. Accordingly, the regulator 104 and the circuitry 106 are comparably affected by variation in one or more environmental conditions, so the circuitry 106 automatically and suitably adapts the start and duration of M3's turn on time. Such technique helps to: (a) achieve faster settling at the gate of M1; and (b) reduce likelihood of the undershoot condition following the overshoot condition.
Moreover, by automatically and suitably adapting the start and duration of M3's turn on time, the circuitry 106 substantially avoids disruption of the regulator 104's loop control. For example, while VOUT rises, M1's Cgs injects transient current into the gate of M1, which affects settling at the gate of M1. While M3 is turned on, it discharges such transient current. Conversely, while M3 is turned off, it stops discharging such transient current.
FIG. 2 is a first set of graphs for showing an operation of the circuitry 100, in comparison to a conventional state machine technique. In FIG. 2, a first graph 202 shows: (a) a trace 204 of VOUT without the circuitry 106; and (b) a trace 206 of VOUT with the circuitry 106. A second graph 208 shows a trace of COMP's first output node ("+"). A third graph 210 shows a trace of pull down current through M3. A fourth graph 212 shows a step down of load current (e.g., of the current source 110) from 515 mA to 15 mA in 1 μs on the line 102.
FIG. 3 is a second set of graphs for showing an operation of the circuitry 100 at different temperatures, in comparison to a conventional state machine technique at different temperatures. In FIG. 3, a first graph 302 shows: (a) a trace 304 of VOUT while operating at 27° C. with the circuitry 106; (b) a trace 306 of VOUT while operating at 180° C. with the circuitry 106; and (c) a trace 308 of VOUT while operating at 180° C. without the circuitry 106. A second graph 310 shows: (a) a trace 312 of COMP's first output node ("+") while operating at 27° C.; and (b) a trace 314 of COMP's first output node ("+") while operating at 180° C. A third graph 316 shows: (a) a trace 318 of pull down current through M3 while operating at 27° C.; and (b) a trace 320 of pull down current through M3 while operating at 180° C.
Also, in FIG. 3, a fourth graph 322 shows a trace 324 of a conventional state machine technique's pull down control signal while operating at 180° C., which is approximately the same as while operating at 27° C. The trace 324 has a predetermined constant duration, but the predetermined constant duration may be unsuitable if variation occurs in one or more environmental conditions. A fifth graph 326 shows a trace 328 of a conventional state machine technique's pull down current while operating at 180° C. A sixth graph 330 shows a step down of load current from 515 mA to 15 mA in 1 μs on the line 102.
In the particular example of FIG. 3, while operating at 27° C., the trace 312 is approximately the same as the trace 324. By comparison, while operating at 180° C., the trace 314 is significantly different from the trace 324. Accordingly, the conventional state machine technique's pull down control signal (as shown by the trace 324 having the predetermined constant duration) potentially increases: (a) settling time under one or more environmental conditions; and (b) likelihood of the undershoot condition following the overshoot condition.
Although illustrative embodiments have been shown and described by way of example, a wide range of alternative embodiments is possible within the scope of the foregoing disclosure.
pull down circuitry including a comparator and second and third transistors, the comparator having an output node and first and second input nodes, the comparator's output node being connected to operate a switch, the comparator's first input node being connected to the line, the comparator's second input node being connected to a second reference voltage, a drain of the third transistor being connected to the line and the second transistor being connected to conduct a substantially constant amount of current from a current source, wherein the pull down circuitry is to: in response to the output voltage rising above the second reference voltage, draw current from the line by the comparator operating the switch to connect a gate of the third transistor to a gate of the second transistor; and, in response to the output voltage falling below the second reference voltage by at least a predetermined amount, cease drawing the current from the line by the comparator operating the switch to turn off the third transistor, wherein the first and second reference voltages are based upon a same band gap reference as one another.
2. The circuitry of claim 1, wherein the regulator and the pull down circuitry are comparably affected by variation in one or more environmental conditions.
3. The circuitry of claim 1, wherein the environmental conditions include at least one of process, voltage and temperature.
4. The circuitry of claim 3, wherein the environmental conditions include at least two of process, voltage and temperature.
5. The circuitry of claim 1, wherein the output voltage is a supply voltage to a processor.
6. The circuitry of claim 1, wherein the second reference voltage equals the target voltage plus ΔLOV, wherein ΔLOV is a predetermined level for detecting an overshoot condition.
7. The circuitry of claim 1, wherein the second reference voltage is below a permitted maximum level of the output voltage.
8. The circuitry of claim 1, wherein the regulator includes first and second resistors whose resistances are R1 and R2 respectively, wherein the line is coupled to a ground through the first and second resistors in series, and wherein the target voltage equals the first reference voltage multiplied by (R1+R2)/R2.
9. The circuitry of claim 1, wherein the pull down circuitry includes a comparator for: comparing the output voltage to the second reference voltage; and outputting at least one signal in response to the comparing.
10. The circuitry of claim 1, wherein drawing current includes: drawing a substantially constant amount of current.
with pull down circuitry that includes a comparator and second and third transistors, the comparator having an output node and first and second input nodes, the comparator's output node being connected to operate a switch, the comparator's first input node being connected to the line, the comparator's second input node being connected to a second reference voltage, a drain of the third transistor being connected to the line and the second transistor being connected to conduct a substantially constant amount of current from a current source: in response to the output voltage rising above the second reference voltage, drawing current from the line by the comparator operating the switch to connect a gate of the third transistor to a gate of the second transistor; and, in response to the output voltage falling below the second reference voltage by at least a predetermined amount, ceasing to draw the current from the line by the comparator operating the switch to turn off the third transistor, wherein the first and second reference voltages are based upon a same band gap reference as one another.
12. The method of claim 11, wherein the regulator and the pull down circuitry are comparably affected by variation in one or more environmental conditions.
13. The method of claim 11, wherein the environmental conditions include at least one of process, voltage and temperature.
14. The method of claim 13, wherein the environmental conditions include at least two of process, voltage and temperature.
15. The method of claim 11, wherein the output voltage is a supply voltage to a processor.
16. The method of claim 11, wherein the second reference voltage equals the target voltage plus ΔLOV, wherein ΔLOV is a predetermined level for detecting an overshoot condition.
17. The method of claim 11, wherein the second reference voltage is below a permitted maximum level of the output voltage.
18. The method of claim 11, wherein the regulator includes first and second resistors whose resistances are R1 and R2 respectively, wherein the line is coupled to a ground through the first and second resistors in series, and wherein the target voltage equals the first reference voltage multiplied by (R1+R2)/R2.
with the comparator: comparing the output voltage to the second reference voltage; and outputting at least one signal in response to the comparing.
20. The method of claim 11, wherein drawing current includes: drawing a substantially constant amount of current.
wherein the first and second reference voltages are based upon a same band gap reference as one another, the regulator and the pull down circuitry are comparably affected by variation in one or more environmental conditions, and the environmental conditions include at least one of: process, voltage and temperature.
22. The circuitry of claim 21, wherein the output voltage is a supply voltage to a processor.
23. The circuitry of claim 21, wherein the regulator includes first and second resistors whose resistances are R1 and R2 respectively, wherein the line is coupled to a ground through the first and second resistors in series, and wherein the target voltage equals the first reference voltage multiplied by (R1+R2)/R2.
24. The circuitry of claim 21, wherein the pull down circuitry includes a comparator for: comparing the output voltage to the second reference voltage; and outputting at least one signal in response to the comparing.
International Search Report and Written Opinion for PCT/US2014/058078 mailed Mar. 26, 2015.


ZoexXxCarlos . ranyasweet4you. HarleySweetXX. Juanitasweet10.
LivestrongNavaAndUnicecock20cmGYNGERFOX .HarleySweetXXShiningSophiaDannAngellSofiaSmart .BrasylGodOfSmokeImAloneHomeRafaelAlessandro .ImAloneHomeDanielleRosytestPerfJESusziDannAngell .AliceMuscleKylieCollinsfulllcock25cmKimy000007 .SunflowerSaraAliceKytellerGirlSunShinePiaWurtzbachTS .RafaelAlessandroLivestrongRafaelAlessandroPiaWurtzbachTS .SoniaHeartssexpert008JadePassionNavaAndU .rakstaryan69jessfuksxxxKimmBecker1Hotty .BrasylGodOfSmokeMaryPornjessfuksxxx .SweetBabyLikeSophie1993ToysLifeKimmBecker .
JadePassionKimmBeckertestPerfJESusziJanne4you .HarleySweetXXranyasweet4youSlimTomSlimTom .naughtylinda18GodOfSmokeJadePassionSoniaHearts .SofiaSmartKathyFSmithCuteYoungJanne4you .LivestrongShaniaDavRafaelAlessandroSoniaHearts .amazing4u25MaryPornAdrasteia00ViviSmall .dubblefun69BrasylAngelaSnowDanielleRosy .MikyMagicHarleySweetXXsofiandysexJadePassion .sexpert008RafaelAlessandrofulllcock25cmHANKANDJONES .NIOSEX2fulllcock25cmHANKANDJONESSoniaHearts .AliceMuscleFoxBabeJanne4youHANKANDJONES .


BMWUSA.com - Andrew Chee. IxD. IA. NYC.
Directed complete user experience redesign for BMW interactive campaign, featuring a new online community to bring enthusiasts, owners and dealers into a cohesive, circular and viral whole, improving both lead generation and customer relationship management, ultimately connecting online and offline experiences.


text:
Q: How do I add a button that would copy displayed text in vue.js? I'm trying to add a button that would enable me to copy a snippet of code that is in view to the clipboard for a code catalog application in vue.js.
When I use the vue clipboard library and attempt this in the example component:

  {{ example.codeSnippet }}

<button v-clipboard:copy="example.codeSnippet"></button>

the snippet displays properly but the button does not. What's going on? How should I go about making this button?

A: You should be using it like : v-clipboard="variableName" or with :copy the same .
you can read more about it here or this one

<template id="t">

    <input type="text" v-model="message">
    <button type="button"
      v-clipboard:copy="message"
      v-clipboard:success="onCopy"
      v-clipboard:error="onError">Copy!</button>

</template>

redpajama_set_name: RedPajamaStackExchange


text:
Gamer Walkthroughs
Gaming Walkthroughs and Reviews
Lara's Home
Temple Ruins
The River Ganges
Caves of Kaliya
Nevada Desert
Nevada Compound
Thames Wharf
Aldwych Station
Lud's Gate
Crash Site
Madubu Gorge
Temple of Puna
RX-Tech Mines
Lost City of Tinnos
Meteorite Cavern
Knights of the Old Republic 2
Unravel 2
New Walkthroughs
Witcher 3: The Wild Hunt
Quest for Glory 2
Back to the Tomb Raider 3 Walkthrough
Objectives: Find a way into the large ship and then use the inflatable raft to make your way into the RX-Tech compound.
Secrets: 3
Items: Crowbar, Gate Control Key and the Hut Key
In Antarctica the water is so cold that you will quickly freeze to death. Instead of a breath meter you have a cold meter that runs out even faster. If you drop into the water you have only about 10 seconds to make it out again.
From the start take a running jump onto the iceberg in the water between you and the ship. Turn to the right and jump to the right side of the ice outcropping and run past the hut on the left side. Take a running jump across the river and get ready for some jumping.
Jump to the ledge on the left. Turn around and jump up to the higher ledge. Stand in the corner facing towards the arch and take a running jump to the flat block just before the arch. From there take a standing jump over to the arch. Turn right and jump into the tunnel where you'll find a Large Medipak, Flares, Rocket and a Power-Up Crystal. See below for the path across the arch.
Make your way back to the ground level and turn right to make your way to towards the front of the ship. Dive in and pull up on the further ledge. Dive in again to make it to the ledge slightly to the left.
Climb up the blocks on the right and then jump up to grab the ice holds in the ceiling. Monkey swing across, drop down and then take a standing jump to the front of the ship.
Onboard the Ship
Drop down the hatch with your guns ready. Run around to the right and take out the Crewman. Press the Button on the wall if you want but don't go through as there's another locked door down the hall. Instead run around to the right and take out the Crewman with the red jacket. Follow the hall to the Engine Room and pull the Switch in the corner behind the engine.
As you climb up behind the engine another Crewman will attack. Drop down to the right into the trapdoor that you just opened and take out another Crewman.
Run up the ramp, kill the Crewman who emerges from the left and push the Button on the right to open the door behind you. Go through the door, run around to the right and kill another Crewman in a room with a yellow pipe. He drops Desert Eagle Clips when he dies.
On the floor of this room there's another hatch. Drop down and follow the path around the corner. Quickly roll and take out a Crewman who appears behind you. Climb up the block and push the Button to lower the Inflatable Raft.
Drop down, run around and climb back up the hatch. Run up the steps into the room you came from and you can ignore the Button on the wall. Instead jump up to the higher level. Follow the corridor around and push the Button at the end to open the door to the outside area.
Before heading for the lifeboat there's a secret that we can grab first. Run around to the right and follow the railing all the way to the end. There's a gap at the end where you can take a standing jump with action to land inside an opening in the ice wall. Drop down for Secret #1 with MP5 Clips and a Power-Up Crystal. Climb up and jump back to the boat. Make your way to the stern (back) of the ship where the lifeboat dropped down.
Stand in front of the davit, or small crane that lowered the lifeboat, and take a standing jump to the other side of it. As you slide down jump again to land on an ice ledge.
It's hard to see the path in the ice but take another standing jump to a triangular block on the left and then a standing jump around the corner of the ice wall to another flat block. From here you can walk forwards and pull up into a hole. Drop down the other side and pick up the Rocket.
Climb out of the hole and slide down to the ground level. Jump over to the Inflatable Raft and drive it around to the right. Continue around the ship and take a left into the river just before the wooden hut. Stop at a passageway just beyond the first arch.
Roll and press left to exit the raft and enter the passage. Climb up the climbable wall, slide down the ramp and jump before you reach the end to grab onto the passageway opposite. Pull up and crawl through to Secret #2 with a Large Medipak, Small Medipak and Grenades.
Crawl back through the small passage and this time turn right. Drop down at the end into the icy water and immediately turn left. Swim back to the raft as quickly as possible.
Drive through the tunnel and get off at the first RX-Tech building on the right. Take out the Guard and run around to the back. Climb up the block and then jump up to grab onto the grating above. Monkey swing all the way to the end of the structure and then drop down onto the soft snow.
Slide down the back of the snow bank and take out the Guard to the left. Run through the tunnel to another small compound with a green-walled building. Kill the Dog and then grab the Shotgun Shells in the far left corner behind the green building.
Head through the front of the green building and watch out for the Dog and Guard that attack from around the left corner. The Guard will drop Desert Eagle Clips.
Continue through the passage to a water tank. Under the fuel tank you'll find some more Shotgun Shells. Run through the cave just past the green building to another RX-Tech building. A Dog will attack as you approach. You'll see a man standing by a window in a raised room to the right but he won't attack unless you shoot at him.
Enter through the sliding doors that have gone haywire and run up the steps to the top. Take out the Guard in the first room and a second Guard will run towards you when he hears the gunfire. He'll drop a Small Medipak.
Push the Button in the next room to open a closet with another Small Medipak. Head to the end room where you'll find a Crowbar on a raised platform. When you pick it up another Guard will attack from the direction you came from. He'll drop some Shotgun Shells.
Leave the building the way you came and go back through the crazy doors. A Guard is waiting outside for you. Go back through the cave and follow the fuel pipe down into the hole.
Either take standing jumps across the water to the icy block and then to the other side or swim under the ice block and pull up on the other side. Climb up the block on the right and then up the step on the left to the four valves.
The valves need to be turned to the right setting. From the first to the last they need to be set to Red, Green, Red, Green. The first valve is already at red so jump across to the second. Turn the wheel to change the second valve to green. The third is red so leave it. Jump across to the ice for a Power-up Crystal and then over to the last valve. Turn the wheel to change it to green.
Climb up the ladder and run around to the right to the generator. Pull the Switch in the middle to turn it on and then pick up the Large Medipak to the right side of the shed. Leave the generator shed and head outside into the snow.
For a fright run straight ahead into the cafeteria. If you run to the left side you'll come across a mutant who spews acid everywhere. Jump back when you see him to avoid being poisoned. Leave the cafeteria and run through the small cave to the right. You'll come to a kennel with 3 Dogs.
Push the Button to go inside the first cage. Take out the Dog and then open the second cage for another 2 Dogs. Press the Button on the wall to open the door to the building and go inside. Take out another Dog and then grab the Gate Control Key from the platform in the far right corner. When you do another Guard will attack from behind. Grab the Uzi Clips before leaving the building.
Leave the kennels and run around to the left, past the red flag. Go through the tunnel to the right, taking out a Guard on the other side. There's a small hole in the middle but it's not very deep so just jump or climb across it.
On the other side there's a wooden bridge. You can drop down and kill a Dog for a Grenade or just continue across the bridge. Follow the path along which will bring you back to the fuel tank area.
Run through the dark tunnel to the left and continue through the icy passage back to the metal structure over the water. Jump up from the snowy bank and monkey swing back to the original RX-Tech building.
Run around to the front and use the Crowbar to open the door. Lara will drop the Crowbar but don't worry about picking it up. You won't need it again in this level. Enter, roll and kill the Guard that attacks from behind. Use the Gate Control Key on the lock and then push the Button to raise the gate.
Hop back through the Inflatable Raft and drive through the gate you just opened ahead and to the left. Hop off at the first red flag, kill the Guard and pick up the Uzi Clips.
Get back on the raft and position it in the middle of the water facing the way you came. Just under the ice shelf to the left you'll be able to dive down and find the Hut Key.
Quickly get back on the raft and drive it all the way back to the wood hut by the large ship. Use the Hut Key on the lock at the front and quickly jump up to grab onto the roof and pull up before the Dog runs out. Kill the dog from the on top of the building and then go inside for Secret #3 with a Power-Up Crystal, Flares and Uzi Clips.
Jump back onto the raft and head back to the gate. Stop off at the ledge after the red flag. You can get off here and pick up some Shotgun Shells.
Get back on the raft and continue to the end. Hop off the raft and onto the low ledge. Climb up the blocks to the compound. Kill the Guard to the left and climb up the low hill. Watch out for the hole up the top and slide down to the right. Kill another Guard and run around to the back of the wooden building to complete the level.
Next Level: RX-Tech Mines
Back: Tomb Raider 3 Walkthrough
Most Anticipated PC Games for 2021
Airborne Kingdom Release
Assassin's Creed Valhalla Released
Ghostrunner FPP Cyberpunk Parkour (New Release)
Star Wars: Squadrons Released
Copyright © Gamer Walkthroughs --- Contact Us --- Privacy ---

redpajama_set_name: RedPajamaCommonCrawl


Select from four graduated sizes of these incredible Ugandan hand-carved Round Serving Bowls by Moses Bagala. Ranging from 3.5 to 7 inches in diameter, these richly wrought, smoothed and polished natural Ankole cow horn bowls are perfect for serving everything from snacks to desserts. You'll love their warm tones and smooth curves that suggest the gently rolling herd lands of exotic East Africa. Made from sustainable materials with no harm to animals.
Be the first to review "Funky Versatile Horn Bowls" Click here to cancel reply.


*BigDye is a registered trademark of Thermo Fisher Scientific Inc.
HighPrep DTR is a high performance paramagnetic bead-based system, designed to remove unincorporated dye terminators from Sanger sequencing reaction. The HighPrep DTR system consists of a selective binding of DNA to the HighPrep DTR paramagnetic beads, followed with washing off nucleotides, primers and non-targeted amplicons, and finally elution of pure DNA. HighPrep DTR is designed for both manual and fully automated purification of sequencing products. The protocol can be adapted to your current lqiuid handling workstation utilizing your current protocol.
For research purposes only. Not for use in diagnostics procedures.


text:
GOP Rep. Jim Jordan: There's a different set of standards for the ruling class
On Monday, Congressman Jim Jordan, R-Ohio, told Fox News' Sandra Smith that the American people are being driven "crazy" by the different set of standards applied to members of the ruling political class.
"There's one set of rules for us regular folk, and a different set if you're part of the politically connected class like Clinton and Comey and Lynch," Jordan said in an interview about Republican lawmakers' demands for criminal investigations of former FBI Director James Comey and former Deputy Director Andrew McCabe and for greater transparency from the Department of Justice.
Jordan said Comey has "messed this thing up from the get-go."
"I think all throughout this process he has been wrong," he said.
"One of the questions we have is on the Michael Cohen raid: Was [Attorney General Jeff Sessions] consulted? Did [Deputy Attorney General] Rod Rosenstein actually talk to the attorney general?"
Jordan dodged a question about what should happen if Sessions was not consulted, saying he should have been consulted before the FBI raided Cohen's office and seized his communications. Cohen, President Trump's personal attorney, is under federal investigation for potential bank fraud and campaign finance violations.
He also said the relationship between Congress and the Department of Justice is "not where it needs to be."
"We have been asking for documents for five months now and today we received approximately 6,000 documents," Jordan said. He recounted a meeting he and Rep. Mark Meadows, R-N.C., had with attorneys from the DOJ, in which they could not answer the lawmakers' questions about the scope and time frame for turnover of all the documents requested by Congress.
"So that's not really confidence-inspiring," Jordan said.
#mc_embed_signup{background:#fff; clear:left; font:14px}
Want to keep up with what's going on in Washington without the liberal media slant, establishment spin, and politician-ese?
Sign up to get CRTV's Capitol Hill Brief in your inbox every evening! It's free!
Ron DeSantis reportedly preparing for 2024 presidential run. A 'more angry' Donald Trump takes shot at 'disloyal' Florida governor.
Man who viewed violent child pornography receives probation, weekend jail sentence to be served 'at his convenience'
Joe Biden tries to slam Trump over debt — but inadvertently takes shot at himself instead: 'My president'
West Virginia man allegedly kidnapped woman, tortured her with butane torch
Grieving mother wears shirt depicting daughter's mutilated corpse to killer's hearing: 'Look at what they did to her'
David DePape confesses to hammer attack in interrogation audio, issues chilling new statement: 'So sorry I didn't get more of them'
Lottery winner spends $50 million before his death — luxury cars, racehorses, and a soccer team — records reveal