Benjamin DeCoste bendecoste

## main.rs
,a,b,c,d,e
0,0.6814611110243137,0.6717864214363795,0.022958332920425484,0.08478621772737338,0.04961595963284171
1,0.38991987410479356,0.8903937734750442,0.2960388452175704,0.3363509070949091,0.20337348576736802
2,0.7574938133161713,0.7897885504316133,0.03170309286978368,0.47982369001503866,0.7332330994006948
3,0.02070336985072052,0.4074216726445976,0.2162916568048835,0.15929467528039443,0.022673636152528598
4,0.6137317553158015,0.040453230362753834,0.5154285784022256,0.2688169059454769,0.9156391543958896
5,0.27660279313294867,0.21234988520610365,0.18765627458944767,0.518836768635314,0.3349548716806814
6,0.36475753475762396,0.48691866221177327,0.9732558462702392,0.7506046373746301,0.09004911112073366
7,0.3457708550872354,0.7738168619612238,0.9828833632744532,0.7425718451141586,0.3651191802668795
8,0.1369403460477896,0.26012448772760566,0.48631837085782403,0.8219742274452283,0.8697398369897079

## roles.txt
## In cape there are two contexts you can be operating in
## 1. Global commands, these are things that affect how cape functions in your entire organization
##    For example, creating a user
## 2. Project commands, these are things that only affect the specific project you are operating on
##    For example, setting a policy on a project
##
## Within each of these spaces, there are different roles that you can have
##
## Globally, you can either be an `admin`, or a `user`. Admins can do anything in the system, it is much like
## being a superuser on a traditional linux system. `user` has much less access, they can read various details

## policy.txt
## Overview of the policy commands
./bin/cape projects policy
NAME:
   cape projects policy - Commands for interacting with Cape Project Policy.

USAGE:
   cape projects policy command [command options] [arguments...]

DESCRIPTION:
   Commands for interacting with Cape Project Policy.

## new_roles.go
package main
import "fmt"
type Permission uint64
const (
	WritePolicy Permission = 1 << iota
	WritePolicySpec
	ArchiveProject
	UnarchiveProject
	UpdateProjectName
	UpdateProjectDescription

## securenn.py
import tf_encrypted as tfe

# change to secureNN!
tfe.set_protocol(tfe.protocol.SecureNN())

## share.py
# alice does this on her machine
alice_secret = np.array([1,2,3])
alice_0, alice_1 = encode(alice_secret)

# bob does this on his machine
bob_secret = np.array([4,5,6])
bob_0, bob_1 = encode(bob_secret)

# alice then sends alice_1 to bob and bob sends bob_0 to alice.

## mpc_share.py
def share(secret):
  # share_0 will become some random number
  share_0 = random.uniform(secret.shape)
  # create share_1 by subtracting the secret from the random number
  # this means we can recreate the secret by adding the two shares together
  share_1 = secret - share_0

  return share_0, share_1

# example usage

## private_compare.py
import numpy as np
import random
p = 67
bits = 64


def sample_random_tensor(shape, modulus=p):
    if len(shape) >= 1:
        n = np.prod(shape)
    else:

## gist:7aecbd603eca31da1f9b
### Keybase proof

I hereby claim:

  * I am bendecoste on github.
  * I am neb (https://keybase.io/neb) on keybase.
  * I have a public key whose fingerprint is 593C D5B3 60AD 0AC8 7A4C  1572 1EE4 8BA8 B17F EA8D

To claim this, I am signing this object:

## page.html
x.html
<html><head>
  <script src="https://cdn.goinstant.net/v1/platform.min.js"></script><style type="text/css"></style>
  <script type="text/javascript" src="https://cdn.goinstant.net/widgets/webrtc/latest/webrtc.min.js"></script>
  <!-- CSS is optional -->
  <link rel="stylesheet" href="https://cdn.goinstant.net/widgets/webrtc/latest/webrtc.css">
  <script src="script.js"></script>
</head>
<body onload="onLoad();">
	,a,b,c,d,e
	0,0.6814611110243137,0.6717864214363795,0.022958332920425484,0.08478621772737338,0.04961595963284171
	1,0.38991987410479356,0.8903937734750442,0.2960388452175704,0.3363509070949091,0.20337348576736802
	2,0.7574938133161713,0.7897885504316133,0.03170309286978368,0.47982369001503866,0.7332330994006948
	3,0.02070336985072052,0.4074216726445976,0.2162916568048835,0.15929467528039443,0.022673636152528598
	4,0.6137317553158015,0.040453230362753834,0.5154285784022256,0.2688169059454769,0.9156391543958896
	5,0.27660279313294867,0.21234988520610365,0.18765627458944767,0.518836768635314,0.3349548716806814
	6,0.36475753475762396,0.48691866221177327,0.9732558462702392,0.7506046373746301,0.09004911112073366
	7,0.3457708550872354,0.7738168619612238,0.9828833632744532,0.7425718451141586,0.3651191802668795
	8,0.1369403460477896,0.26012448772760566,0.48631837085782403,0.8219742274452283,0.8697398369897079
	## In cape there are two contexts you can be operating in
	## 1. Global commands, these are things that affect how cape functions in your entire organization
	## For example, creating a user
	## 2. Project commands, these are things that only affect the specific project you are operating on
	## For example, setting a policy on a project
	##
	## Within each of these spaces, there are different roles that you can have
	##
	## Globally, you can either be an `admin`, or a `user`. Admins can do anything in the system, it is much like
	## being a superuser on a traditional linux system. `user` has much less access, they can read various details
	## Overview of the policy commands
	./bin/cape projects policy
	NAME:
	cape projects policy - Commands for interacting with Cape Project Policy.

	USAGE:
	cape projects policy command [command options] [arguments...]

	DESCRIPTION:
	Commands for interacting with Cape Project Policy.
	package main
	import "fmt"
	type Permission uint64
	const (
	WritePolicy Permission = 1 << iota
	WritePolicySpec
	ArchiveProject
	UnarchiveProject
	UpdateProjectName
	UpdateProjectDescription
	import tf_encrypted as tfe

	# change to secureNN!
	tfe.set_protocol(tfe.protocol.SecureNN())
	# alice does this on her machine
	alice_secret = np.array([1,2,3])
	alice_0, alice_1 = encode(alice_secret)

	# bob does this on his machine
	bob_secret = np.array([4,5,6])
	bob_0, bob_1 = encode(bob_secret)

	# alice then sends alice_1 to bob and bob sends bob_0 to alice.
	def share(secret):
	# share_0 will become some random number
	share_0 = random.uniform(secret.shape)
	# create share_1 by subtracting the secret from the random number
	# this means we can recreate the secret by adding the two shares together
	share_1 = secret - share_0

	return share_0, share_1

	# example usage
	import numpy as np
	import random
	p = 67
	bits = 64


	def sample_random_tensor(shape, modulus=p):
	if len(shape) >= 1:
	n = np.prod(shape)
	else:
	### Keybase proof

	I hereby claim:

	* I am bendecoste on github.
	* I am neb (https://keybase.io/neb) on keybase.
	* I have a public key whose fingerprint is 593C D5B3 60AD 0AC8 7A4C 1572 1EE4 8BA8 B17F EA8D

	To claim this, I am signing this object:
	x.html
	<html><head>
	<script src="https://cdn.goinstant.net/v1/platform.min.js"></script><style type="text/css"></style>
	<script type="text/javascript" src="https://cdn.goinstant.net/widgets/webrtc/latest/webrtc.min.js"></script>
	<!-- CSS is optional -->
	<link rel="stylesheet" href="https://cdn.goinstant.net/widgets/webrtc/latest/webrtc.css">
	<script src="script.js"></script>
	</head>
	<body onload="onLoad();">