ㅤ 　　╱╲ 　╱　　╲ ▕　▕　▕ ▕　▕　▕ 　╲　╲╱ 　╱╲　╲ ▕　▕　▕ ▕　▕　▕ 　╲　　╱ TONER 　　╲╱

@jon_roelofs Now I have to change my password 😵‍💫

RT @laurashin: ⚠️ The price of being public in crypto? Physical Attacks. @lopp says well-known figures are being explicitly or implicitly…

Security isn’t just digital - it has a real world, physical component that many overlook. If you work or play in this industry, make sure to educate yourself, train, and take the necessary steps to stay safe.🔫🔒📷

@BHinfoSecurity

@satsie bitcoin

@CryptoEuclid

@ErikVoorhees I've found that writing prompts in other languages, binary, base64, multiple layers, leet speek, Klingon, and/or backwards is a great injection/bypass technique.

@zackvoell "Double damn"

@CryptoCaesar112 @JupiterExchange @phantom @telegram @solana Some of the ones I'm seeing are copying PowerShell code into the clipboard, expecting the user to paste and run the following.

Seeing this attack all over X today impersonating a variety of projects. Beware.

I am elated to see that SSRN has updated the author attribution on the Bitcoin whitepaper. I had a long running support case open with them for years regarding the false author attribution.

@Free_Ross @realDonaldTrump This is great news to hear! Thank you to everyone involved for making this happen. ❤️

RT @HackingDave: Smart phish via github - email comes from github - issue is created on repo that suspicious activity was detected and to c…

Pondering how much bitcoin has been lost forever now due to the Palisades fire...

Works locally and factors, but needs adjustments to use the right backend instead of qasm_simulator. ``` from qiskit import QuantumCircuit, QuantumRegister, ClassicalRegister, transpile from qiskit_aer import Aer import math def modular_exponentiation(a, x, N): qc = QuantumCircuit(4, 2) for i in range(4): qc.x(i) for i in range(2): qc.h(i) for i in range(2): for j in range(2**i): qc.cp(2 * math.pi * a**(2**i) / N, i, 2) qc.cp(2 * math.pi * a**(2**i) / N, i, 3) qc.swap(2, 3) for i in range(2): qc.h(i) for j in range(i): qc.cp(-math.pi / 2**(i-j), j, i) qc.measure(range(2), range(2)) return qc N = 77 for a in range(2, N): if math.gcd(a, N) != 1: print(f"Factor found: {a}") break circuit = modular_exponentiation(a, 1, N) backend = Aer.get_backend('qasm_simulator') transpiled_circuit = transpile(circuit, backend) job = transpiled_circuit, shots=1000) result = job.result() counts = result.get_counts(transpiled_circuit) if len(counts) == 2: if counts['00'] > 0 and counts['11'] > 0: # Simplification change for small N number r = 2 if r % 2 == 0 and pow(a, r//2, N) != N-1: factor1 = math.gcd(a**(r//2) - 1, N) factor2 = math.gcd(a**(r//2) + 1, N) if factor1 != 1 and factor2 != 1: print(f"Factors found: {factor1} and {factor2}") break print("Counts:", counts) ```

@paintwithalex And how right you were...

RT @HackenProof:

There is no amount of monetary value that can be attributed to true peace, low stress, and ultimate happiness.