@claireinnyc: And I’m back in #nyc #newyork #welsh #over30sclub

Claire in NYC
Claire in NYC
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Region: US
Wednesday 08 February 2023 12:28:35 GMT
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melodyarnold218
MelodyJoan :
Hair is 🔥🔥🔥🔥
2023-02-09 19:34:02
0
victoriasophianyc
Victoria Sophia ✨ :
I love the boots!!!
2023-02-09 22:40:36
1
glendathe19yearoldcat
GlendaThe19YrOldCat :
The shirt iz cos wot?
2023-02-09 08:17:25
0
adayinoneplace
ADayInOnePlace :
Perfect outfit!
2023-02-08 20:37:07
0
myblondereality
Myblondereality :
Your hair is epic
2023-02-10 04:44:59
2
bunbjr
BumbleBeeee 🍒 :
Love love love the look ❤️
2023-02-08 13:32:59
0
josiegreco3
Josie Greco :
You look great !! Nice outfit love the boots !!’
2023-02-08 22:43:23
0
weegracie854
grace ❤️❤️ :
I love those boots! So difficult to find a heel like that.
2023-02-08 18:11:40
0
raynecitybulldogs
RayneCityBulldogs :
Ohhhh you have the Clearly Loved Pet Pen! Great taste! We Love Them! 🥰
2023-02-08 22:28:33
0
lizbeth098760
lizbeth098760 :
i love your style🥰
2023-02-08 12:46:44
1
cazyxx
Caz :
Hi Claire you look fab 🥰
2023-02-08 23:35:28
1
mikioban
Miki Obana :
Hey claire, fab outfit. I can’t quite make out where your jewellery is from. Let me know! NEED!
2023-02-08 22:54:21
1
aimeebyrnes6
Aimee Byrnes 🇦🇺 🇬🇧 :
Love it! Those necklaces ❤️
2023-02-08 12:30:45
0
thereallaurenpantry
Lauren :
You look wicked!
2023-02-13 13:39:00
0
laurathegonk
simply :
You look fabulous, very Parisian chic 🥰
2023-02-08 13:03:46
1
bambams9121
Bambams :
You look fab! Fellow Welsh girl here 😁🏴󠁧󠁢󠁷󠁬󠁳󠁿
2023-02-08 13:26:01
0
madicastle
Madi castle :
Hummm agreed 😂👌🏻
2023-02-22 09:35:52
0
bokkels29
Orla Posta :
What’s your shoe size? Are you 8/9 like me?
2023-02-08 12:40:10
1
xyz18660
🧋🪆 :
I can see the Celine Luggage peeking in the corner! So chic! How do you store yours? Mine collapse no matter how I store them 😭
2023-02-08 14:09:18
1
ellebannannabelle5
Annabelle :
it’s pronounced KATE and not KITE
2023-02-09 16:16:14
0
shawnjerremsmedium
Shawn Jerrems Psychic Medium :
You are slaying!
2023-02-10 15:00:42
0
karinanoeljewelry
KarinaNoel :
Love love love
2023-04-06 01:18:45
0
raynecitybulldogs
RayneCityBulldogs :
Outfit is also super cute 🙌
2023-02-08 22:28:59
0
_ynapav
Krystyna :
Skinny jeans are life
2023-02-08 19:27:49
0
teambjjesse
BJ :
you’re stunning love bug
2023-02-08 14:17:14
0
missbilly2021
BillyGurl :
So chic 👌🫶🏽 love the hair too 😀
2023-02-08 12:39:00
0
dbj1969
DBJ1969 :
Hair looks so good!😁
2023-02-08 12:34:04
0
To see more videos from user @claireinnyc, please go to the Tikwm homepage.

Other Videos

🏎️ How can F1 engineers test a car travelling at hundreds of kilometres an hour… while the car itself goes absolutely nowhere? They use a wind tunnel — but there’s a lot more engineering involved than simply pointing a giant fan at a model. Aerodynamically, what matters is the relative velocity between the car and the air around it. So rather than moving the car through stationary air, a wind tunnel does essentially the opposite: the model remains in the test section while carefully controlled airflow moves past it. But recreating what happens on a racetrack is surprisingly complicated. On track, the ground is moving relative to the car and the wheels are rotating. In the wind tunnel, engineers recreate this using a high-speed rolling road beneath the model. Without it, a boundary layer would develop over a stationary tunnel floor and distort the airflow underneath the car — particularly important when so much F1 aerodynamic performance comes from the floor. The model itself is attached to a highly sensitive force balance. This allows engineers to measure forces and moments and calculate quantities including downforce, drag and aerodynamic balance. Rather than simply asking whether a new component produces “more downforce”, engineers can investigate where that aerodynamic load acts and how the balance of the car changes. And an F1 car almost never operates in one perfect aerodynamic condition. It brakes and pitches forwards. It accelerates and changes ride height. It rolls through corners, the front wheels steer, and the car experiences airflow at different yaw angles. So engineers can alter the position and attitude of the wind-tunnel model to investigate its behaviour across many different conditions, gradually building an aerodynamic map of the car. There’s another complication: under F1’s aerodynamic testing restrictions, teams use wind-tunnel models no larger than 60% scale, and the permitted air speed is also restricted. So engineers have to make measurements on a scaled model and determine how accurately those results represent a full-size car operating on a real circuit. And that's where one of the most important concepts in F1 development comes in: correlation. Engineers compare results from CFD simulations, the wind tunnel and ultimately the real car on track. If those three don't agree, understanding why they disagree can be just as valuable as finding another point of downforce. A wind tunnel isn't really about seeing whether something “looks aerodynamic”. It’s a carefully controlled engineering experiment that allows engineers to make invisible airflow measurable — and use it to predict what a completely different-sized car will do on track. 🏁 #F1 #Formula1 #Engineering #STEM #Education
🏎️ How can F1 engineers test a car travelling at hundreds of kilometres an hour… while the car itself goes absolutely nowhere? They use a wind tunnel — but there’s a lot more engineering involved than simply pointing a giant fan at a model. Aerodynamically, what matters is the relative velocity between the car and the air around it. So rather than moving the car through stationary air, a wind tunnel does essentially the opposite: the model remains in the test section while carefully controlled airflow moves past it. But recreating what happens on a racetrack is surprisingly complicated. On track, the ground is moving relative to the car and the wheels are rotating. In the wind tunnel, engineers recreate this using a high-speed rolling road beneath the model. Without it, a boundary layer would develop over a stationary tunnel floor and distort the airflow underneath the car — particularly important when so much F1 aerodynamic performance comes from the floor. The model itself is attached to a highly sensitive force balance. This allows engineers to measure forces and moments and calculate quantities including downforce, drag and aerodynamic balance. Rather than simply asking whether a new component produces “more downforce”, engineers can investigate where that aerodynamic load acts and how the balance of the car changes. And an F1 car almost never operates in one perfect aerodynamic condition. It brakes and pitches forwards. It accelerates and changes ride height. It rolls through corners, the front wheels steer, and the car experiences airflow at different yaw angles. So engineers can alter the position and attitude of the wind-tunnel model to investigate its behaviour across many different conditions, gradually building an aerodynamic map of the car. There’s another complication: under F1’s aerodynamic testing restrictions, teams use wind-tunnel models no larger than 60% scale, and the permitted air speed is also restricted. So engineers have to make measurements on a scaled model and determine how accurately those results represent a full-size car operating on a real circuit. And that's where one of the most important concepts in F1 development comes in: correlation. Engineers compare results from CFD simulations, the wind tunnel and ultimately the real car on track. If those three don't agree, understanding why they disagree can be just as valuable as finding another point of downforce. A wind tunnel isn't really about seeing whether something “looks aerodynamic”. It’s a carefully controlled engineering experiment that allows engineers to make invisible airflow measurable — and use it to predict what a completely different-sized car will do on track. 🏁 #F1 #Formula1 #Engineering #STEM #Education

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