Mobile

Package amber is an elegant templating engine for Go Programming Language. It is inspired from HAML and Jade. A tag is simply a word: is converted to It is possible to add ID and CLASS attributes to tags: are converted to Any arbitrary attribute name / value pair can be added this way: You can mix multiple attributes together gets converted to It is also possible to define these attributes within the block of a tag To add a doctype, use `!!!` or `doctype` keywords: or use `doctype` Available options: `5`, `default`, `xml`, `transitional`, `strict`, `frameset`, `1.1`, `basic`, `mobile` For single line tag text, you can just append the text after tag name: would yield For multi line tag text, or nested tags, use indentation: Input template data can be reached by key names directly. For example, assuming the template has been executed with following JSON data: It is possible to interpolate fields using `#{}` would print Attributes can have field names as well would print Amber can expand basic expressions. For example, it is possible to concatenate strings with + operator: Arithmetic expressions are also supported: Expressions can be used within attributes It is possible to define dynamic variables within templates, all variables must start with a $ character and can be assigned as in the following example: If you need to access the supplied data itself (i.e. the object containing Name, LastName etc fields.) you can use `$` variable For conditional blocks, it is possible to use `if <expression>` Again, it is possible to use arithmetic and boolean operators There is a special syntax for conditional attributes. Only block attributes can have conditions; This would yield a div with `hasfriends` class only if the `Friends > 0` condition holds. It is perfectly fine to use the same method for other types of attributes: It is possible to iterate over arrays and maps using `each`: would print It is also possible to iterate over values and indexes at the same time A template can include other templates using `include`: gets compiled to A template can inherit other templates. In order to inherit another template, an `extends` keyword should be used. Parent template can define several named blocks and child template can modify the blocks. License (The MIT License) Copyright (c) 2012 Ekin Koc <ekin@eknkc.com> Permission is hereby granted, free of charge, to any person obtaining a copy of this software and associated documentation files (the 'Software'), to deal in the Software without restriction, including without limitation the rights to use, copy, modify, merge, publish, distribute, sublicense, and/or sell copies of the Software, and to permit persons to whom the Software is furnished to do so, subject to the following conditions: The above copyright notice and this permission notice shall be included in all copies or substantial portions of the Software. THE SOFTWARE IS PROVIDED 'AS IS', WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.

Package cognitoidentity provides the API client, operations, and parameter types for Amazon Cognito Identity. Amazon Cognito Federated Identities is a web service that delivers scoped temporary credentials to mobile devices and other untrusted environments. It uniquely identifies a device and supplies the user with a consistent identity over the lifetime of an application. Using Amazon Cognito Federated Identities, you can enable authentication with one or more third-party identity providers (Facebook, Google, or Login with Amazon) or an Amazon Cognito user pool, and you can also choose to support unauthenticated access from your app. Cognito delivers a unique identifier for each user and acts as an OpenID token provider trusted by AWS Security Token Service (STS) to access temporary, limited-privilege AWS credentials. For a description of the authentication flow from the Amazon Cognito Developer Guide see Authentication Flow. For more information see Amazon Cognito Federated Identities.

Package safebrowsing implements a client for the Safe Browsing API v4. API v4 emphasizes efficient usage of the network for bandwidth-constrained applications such as mobile devices. It achieves this by maintaining a small portion of the server state locally such that some queries can be answered immediately without any network requests. Thus, fewer API calls made, means less bandwidth is used. At a high-level, the implementation does the following: Essentially the query is presented to three major components: The database, the cache, and the API. Each of these may satisfy the query immediately, or may say that it does not know and that the query should be satisfied by the next component. The goal of the database and cache is to satisfy as many queries as possible to avoid using the API. Starting with a user query, a hash of the query is performed to preserve privacy regarded the exact nature of the query. For example, if the query was for a URL, then this would be the SHA256 hash of the URL in question. Given a query hash, we first check the local database (which is periodically synced with the global Safe Browsing API servers). This database will either tell us that the query is definitely safe, or that it does not have enough information. If we are unsure about the query, we check the local cache, which can be used to satisfy queries immediately if the same query had been made recently. The cache will tell us that the query is either safe, unsafe, or unknown (because the it's not in the cache or the entry expired). If we are still unsure about the query, then we finally query the API server, which is guaranteed to return to us an authoritative answer, assuming no networking failures. For more information, see the API developer's guide:

This ip2location package provides a fast lookup of country, region, city, latitude, longitude, ZIP code, time zone, ISP, domain name, connection type, IDD code, area code, weather station code, station name, MCC, MNC, mobile brand, elevation, usage type, address type, IAB category, district, autonomous system number (ASN) and autonomous system (AS) from IP address by using IP2Location database.

Package amplify provides the API client, operations, and parameter types for AWS Amplify. Amplify enables developers to develop and deploy cloud-powered mobile and web apps. Amplify Hosting provides a continuous delivery and hosting service for web applications. For more information, see the Amplify Hosting User Guide. The Amplify Framework is a comprehensive set of SDKs, libraries, tools, and documentation for client app development. For more information, see the Amplify Framework.

Package worklink provides the API client, operations, and parameter types for Amazon WorkLink. Amazon WorkLink is a cloud-based service that provides secure access to internal websites and web apps from iOS and Android phones. In a single step, your users, such as employees, can access internal websites as efficiently as they access any other public website. They enter a URL in their web browser, or choose a link to an internal website in an email. Amazon WorkLink authenticates the user's access and securely renders authorized internal web content in a secure rendering service in the AWS cloud. Amazon WorkLink doesn't download or store any internal web content on mobile devices.

Ivy is an interpreter for an APL-like language. It is a plaything and a work in progress. Unlike APL, the input is ASCII and the results are exact (but see the next paragraph). It uses exact rational arithmetic so it can handle arbitrary precision. Values to be input may be integers (3, -1), rationals (1/3, -45/67) or floating point values (1e3, -1.5 (representing 1000 and -3/2)). Some functions such as sqrt are irrational. When ivy evaluates an irrational function, the result is stored in a high-precision floating-point number (default 256 bits of mantissa). Thus when using irrational functions, the values have high precision but are not exact. Unlike in most other languages, operators always have the same precedence and expressions are evaluated in right-associative order. That is, unary operators apply to everything to the right, and binary operators apply to the operand immediately to the left and to everything to the right. Thus, 3*4+5 is 27 (it groups as 3*(4+5)) and iota 3+2 is 1 2 3 4 5 while 3+iota 2 is 4 5. A vector is a single operand, so 1 2 3 + 3 + 3 4 5 is (1 2 3) + 3 + (3 4 5), or 7 9 11. As a special but important case, note that 1/3, with no intervening spaces, is a single rational number, not the expression 1 divided by 3. This can affect precedence: 3/6*4 is 2 while 3 / 6*4 is 1/8 since the spacing turns the / into a division operator. Use parentheses or spaces to disambiguate: 3/(6*4) or 3 /6*4. Ivy has complex numbers, which are constructed using the unary or binary j operator. As with rationals, the token 1j2 (the representation of 1+2i) is a single token. The individual parts can be rational, so 1/2j-3/2 is the complex number 0.5-1.5i and scans as a single value. Indexing uses [] notation: x[1], x[1; 2], and so on. Indexing by a vector selects multiple elements: x[1 2] creates a new item from x[1] and x[2]. An empty index slot is a shorthand for all the elements along that dimension, so x[] is equivalent to x, and x[;3] gives the third column of two-dimensional array x. Only a subset of APL's functionality is implemented, but all numerical operations are supported. Semicolons separate multiple statements on a line. Variables are alphanumeric and are assigned with the = operator. Assignment is an expression. After each successful expression evaluation, the result is stored in the variable called _ (underscore) so it can be used in the next expression. The APL operators, adapted from https://en.wikipedia.org/wiki/APL_syntax_and_symbols, and their correspondence are listed here. The correspondence is incomplete and inexact. Unary operators Binary operators Operators and axis indicator Type-converting operations The constants e (base of natural logarithms) and pi (π) are pre-defined to high precision, about 3000 decimal digits truncated according to the floating point precision setting. Strings are vectors of "chars", which are Unicode code points (not bytes). Syntactically, string literals are very similar to those in Go, with back-quoted raw strings and double-quoted interpreted strings. Unlike Go, single-quoted strings are equivalent to double-quoted, a nod to APL syntax. A string with a single char is just a singleton char value; all others are vectors. Thus “, "", and ” are empty vectors, `a`, "a", and 'a' are equivalent representations of a single char, and `ab`, `a` `b`, "ab", "a" "b", 'ab', and 'a' 'b' are equivalent representations of a two-char vector. Unlike in Go, a string in ivy comprises code points, not bytes; as such it can contain only valid Unicode values. Thus in ivy "\x80" is illegal, although it is a legal one-byte string in Go. Strings can be printed. If a vector contains only chars, it is printed without spaces between them. Chars have restricted operations. Printing, comparison, indexing and so on are legal but arithmetic is not, and chars cannot be converted automatically into other singleton values (ints, floats, and so on). The unary operators char and code enable transcoding between integer and char values. Users can define unary and binary operators, which then behave just like built-in operators. Both a unary and a binary operator may be defined for the same name. The syntax of a definition is the 'op' keyword, the operator and formal arguments, an equals sign, and then the body. The names of the operator and its arguments must be identifiers. For unary operators, write "op name arg"; for binary write "op leftarg name rightarg". The final expression in the body is the return value. Operators may have recursive definitions; see the paragraph about conditional execution for an example. The body may be a single line (possibly containing semicolons) on the same line as the 'op', or it can be multiple lines. For a multiline entry, there is a newline after the '=' and the definition ends at the first blank line (ignoring spaces). Conditional execution is done with the ":" binary conditional return operator, which is valid only within the code for a user-defined operator. The left operand must be a scalar. If it is non-zero, the right operand is returned as the value of the function. Otherwise, execution continues normally. The ":" operator has a lower precedence than any other operator; in effect it breaks the line into two separate expressions. Example: average of a vector (unary): Example: n largest entries in a vector (binary): Example: multiline operator definition (binary): Example: primes less than N (unary): Example: greatest common divisor (binary): On mobile platforms only, due to I/O restrictions, user-defined operators must be presented on a single line. Use semicolons to separate expressions: To declare an operator but not define it, omit the equals sign and what follows. Within a user-defined operator body, identifiers are local to the invocation if they are assigned before being read, and global if read before being written. To write to a global without reading it first, insert an unused read. To remove the definition of a unary or binary user-defined operator, Ivy accepts a number of special commands, introduced by a right paren at the beginning of the line. Most report the current value if a new value is not specified. For these commands, numbers are always read and printed base 10 and must be non-negative on input.

This ip2location package provides a fast lookup of country, region, city, latitude, longitude, ZIP code, time zone, ISP, domain name, connection type, IDD code, area code, weather station code, station name, MCC, MNC, mobile brand, elevation, and usage type from IP address by using IP2Location database.

Package gl is a Go cross-platform binding for OpenGL, with an OpenGL ES 2-like API. It supports: - macOS, Linux and Windows via OpenGL 2.1 backend, - iOS and Android via OpenGL ES 2.0 backend, - Modern Browsers (desktop and mobile) via WebGL 1.0 backend. This is a fork of golang.org/x/mobile/gl package with [CL 8793](https://go-review.googlesource.com/8793) merged in and Windows support added. This package is fully functional, but may eventually become superceded by the new x/mobile/gl plan. It will exist and be fully supported until it can be safely replaced by a better package. This OpenGL binding has a ContextWatcher, which implements [glfw.ContextWatcher](https://godoc.org/github.com/goxjs/glfw#ContextWatcher) interface. Recommended usage is with github.com/goxjs/glfw package, which accepts a ContextWatcher in its Init, and takes on the responsibility of notifying it when context is made current or detached. If you're not using a ContextWatcher-aware glfw library, you must call methods of gl.ContextWatcher yourself whenever you make a context current or detached.

Package pinpointemail provides the API client, operations, and parameter types for Amazon Pinpoint Email Service. Welcome to the Amazon Pinpoint Email API Reference. This guide provides information about the Amazon Pinpoint Email API (version 1.0), including supported operations, data types, parameters, and schemas. Amazon Pinpointis an AWS service that you can use to engage with your customers across multiple messaging channels. You can use Amazon Pinpoint to send email, SMS text messages, voice messages, and push notifications. The Amazon Pinpoint Email API provides programmatic access to options that are unique to the email channel and supplement the options provided by the Amazon Pinpoint API. If you're new to Amazon Pinpoint, you might find it helpful to also review the Amazon Pinpoint Developer Guide . The Amazon Pinpoint Developer Guide provides tutorials, code samples, and procedures that demonstrate how to use Amazon Pinpoint features programmatically and how to integrate Amazon Pinpoint functionality into mobile apps and other types of applications. The guide also provides information about key topics such as Amazon Pinpoint integration with other AWS services and the limits that apply to using the service. The Amazon Pinpoint Email API is available in several AWS Regions and it provides an endpoint for each of these Regions. For a list of all the Regions and endpoints where the API is currently available, see AWS Service Endpointsin the Amazon Web Services General Reference. To learn more about AWS Regions, see Managing AWS Regionsin the Amazon Web Services General Reference. In each Region, AWS maintains multiple Availability Zones. These Availability Zones are physically isolated from each other, but are united by private, low-latency, high-throughput, and highly redundant network connections. These Availability Zones enable us to provide very high levels of availability and redundancy, while also minimizing latency. To learn more about the number of Availability Zones that are available in each Region, see AWS Global Infrastructure.

Package serverlessapplicationrepository provides the API client, operations, and parameter types for AWSServerlessApplicationRepository. The AWS Serverless Application Repository makes it easy for developers and enterprises to quickly find and deploy serverless applications in the AWS Cloud. For more information about serverless applications, see Serverless Computing and Applications on the AWS website. The AWS Serverless Application Repository is deeply integrated with the AWS Lambda console, so that developers of all levels can get started with serverless computing without needing to learn anything new. You can use category keywords to browse for applications such as web and mobile backends, data processing applications, or chatbots. You can also search for applications by name, publisher, or event source. To use an application, you simply choose it, configure any required fields, and deploy it with a few clicks. You can also easily publish applications, sharing them publicly with the community at large, or privately within your team or across your organization. To publish a serverless application (or app), you can use the AWS Management Console, AWS Command Line Interface (AWS CLI), or AWS SDKs to upload the code. Along with the code, you upload a simple manifest file, also known as the AWS Serverless Application Model (AWS SAM) template. For more information about AWS SAM, see AWS Serverless Application Model (AWS SAM) on the AWS Labs GitHub repository. The AWS Serverless Application Repository Developer Guide contains more information about the two developer experiences available: Publishing Applications – Configure and upload applications to make them

Package workmail provides the API client, operations, and parameter types for Amazon WorkMail. WorkMail is a secure, managed business email and calendaring service with support for existing desktop and mobile email clients. You can access your email, contacts, and calendars using Microsoft Outlook, your browser, or other native iOS and Android email applications. You can integrate WorkMail with your existing corporate directory and control both the keys that encrypt your data and the location in which your data is stored. The WorkMail API is designed for the following scenarios: Listing and describing organizations Managing users Managing groups Managing resources All WorkMail API operations are Amazon-authenticated and certificate-signed. They not only require the use of the AWS SDK, but also allow for the exclusive use of AWS Identity and Access Management users and roles to help facilitate access, trust, and permission policies. By creating a role and allowing an IAM user to access the WorkMail site, the IAM user gains full administrative visibility into the entire WorkMail organization (or as set in the IAM policy). This includes, but is not limited to, the ability to create, update, and delete users, groups, and resources. This allows developers to perform the scenarios listed above, as well as give users the ability to grant access on a selective basis using the IAM model.

Package clouddirectory provides the API client, operations, and parameter types for Amazon CloudDirectory. Amazon Cloud Directory is a component of the AWS Directory Service that simplifies the development and management of cloud-scale web, mobile, and IoT applications. This guide describes the Cloud Directory operations that you can call programmatically and includes detailed information on data types and errors. For information about Cloud Directory features, see AWS Directory Serviceand the Amazon Cloud Directory Developer Guide.