jiebi/CodeConvo huggingface dataset:
conveying the semantic requirements of DOH but may result in very poor performance for many uses cases. <ins> 7.3. Before using DOH response data for DNS resolution, the client MUST establish that the HTTP request URI is a trusted service for the DOH query.  For HTTP requests initiated by the DNS API client this trust is implicit in the selection of URI.  For HTTP server push (RFC7540 Section 8.2) extra care must be taken to ensure that the pushed URI is one that the client would have directed the same query to if the client had initiated the request.  This specification does not extend DNS resolution privileges to URIs that are not recognized by the client as trusted DNS API servers. </ins> 8. 8.1.
using the TLS exporter interface RFC5705 (for TLS 1.3 this is defined in Section 7.5 of RFC8446). <del> All other parameters such as MSK and EMSK are derived in the same manner as with EAP-TLS RFC5216, Section 2.3.  The definitions are repeated below for simplicity: </del> <ins> All other parameters are derived in the same manner as with EAP-TLS RFC5216, Section 2.3.  The definitions are repeated below for simplicity: </ins> The use of these keys is specific to the lower layer, as described RFC5247.
The PSK associated with the ticket depends on the client Finished and cannot be pre-computed in handshakes with client authentication.  The NewSessionTicket message MUST NOT include an "early_data" extension. <del> A mechanism by which clients can specify the desired number of tickets needed for future connections is defined in I-D.ietf-tls- ticketrequests. </del> <ins> Servers should take into account that fewer newSessionTickets will likely be needed in EAP-TLS than in the usual HTTPS connection scenario.  In most cases a single newSessionTicket will be sufficient.  A mechanism by which clients can specify the desired number of tickets needed for future connections is defined in I- D.ietf-tls-ticketrequests. </ins> figbase2 shows an example message flow for a succesfull EAP-TLS full handshake with mutual authentication and ticket establishment of a
order things are sent and the application data MAY therefore be sent before a NewSessionTicket.  TLS application data 0x00 is therefore to be interpreted as success after the EAP-Request that contains TLS <del> application data 0x00.  After the EAP-TLS server has received an empty EAP-Response to the EAP-Request containing the TLS application data 0x00, the EAP-TLS server sends EAP-Success. </del> <ins> application data 0x00.  After the EAP-TLS server has sent an EAP- Request containing the TLS application data 0x00 and received an EAP- Response packet of EAP-Type=EAP-TLS and no data, the EAP-TLS server sends EAP-Success. </ins> figbase1 shows an example message flow for a successful EAP-TLS full handshake with mutual authentication (and neither HelloRetryRequest
"key_share" and using the "psk_dhe_ke" pre-shared key exchange mode is also important in order to limit the impact of a key compromise. When using "psk_dhe_ke", TLS 1.3 provides forward secrecy meaning <del> that key leakage does not compromise any earlier connections.  It is RECOMMMENDED to use "psk_dhe_ke" for resumption. </del> <ins> that key leakage does not compromise any earlier connections.  The "psk_dh_ke" mechanism MUST be used for resumption unless the deployment has a local requirement to allow configuration of other mechanisms. </ins> 2.1.4.
figterm3 shows an example message flow where the EAP-TLS server authenticates to the EAP-TLS peer successfully, but the EAP-TLS peer <del> fails to authenticate to the EAP-TLS server and sends a TLS Error alert. </del> <ins> fails to authenticate to the EAP-TLS server and the server sends a TLS Error alert. </ins> 2.1.5.
accounting. As suggested in RFC8446, EAP-TLS peers MUST NOT store resumption PSKs <del> or tickets (and associated cached data) for longer than 7 days, regardless of the PSK or ticket lifetime.  The EAP-TLS peer MAY delete them earlier based on local policy.  The cached data MAY also be removed on the EAP-TLS server or EAP-TLS peer if any certificate in the certificate chain has been revoked or has expired.  In all such cases, an attempt at resumption results in a full TLS handshake instead. </del> <ins> or tickets (and associated cached data) for longer than 604800 seconds (7 days), regardless of the PSK or ticket lifetime.  The EAP- TLS peer MAY delete them earlier based on local policy.  The cached data MAY also be removed on the EAP-TLS server or EAP-TLS peer if any certificate in the certificate chain has been revoked or has expired. In all such cases, an attempt at resumption results in a full TLS handshake instead. </ins> Information from the EAP-TLS exchange (e.g., the identity provided in EAP-Response/Identity) as well as non-EAP information (e.g., IP
3.6. <ins> Note that JSON "null" is treated the same as any other JSON value: it is not taken to mean "undefined" or "missing". 3.6.1. JSON document: Queries: 3.7. </ins> A Normalized Path is a JSONPath with restricted syntax that identifies a node by providing a query that results in exactly that node.  For example, the JSONPath expression "$.book[?(@.price<10)]"
only if that object has a member with that name.  Nothing is selected from a value that is not a object. <del> Array indexing via "element-index" is a way of selecting a particular array element using a zero-based index.  For example, selector "[0]" selects the first and selector "[4]" the fifth element of a sufficiently long array. </del> <ins> The "index-selector" applied with an "element-index" to an array selects an array element using a zero-based index.  For example, selector "[0]" selects the first and selector "[4]" the fifth element of a sufficiently long array.  Nothing is selected, and it is not an error, if the index lies outside the range of the array.  Nothing is selected from a value that is not an array. </ins> A negative "element-index" counts from the array end.  For example, selector "[-1]" selects the last and selector "[-2]" selects the
of the selector entries in the list and yields the concatenation of the lists (in the order of the selector entries) of nodes selected by the selector entries.  Note that any node selected in more than one <del> of the selector entries is kept as many times in the node list. </del> <ins> of the selector entries is kept as many times in the nodelist. </ins> To be valid, integer values in the "element-index" and "slice-index" components MUST be in the I-JSON range of exact values, see synsem-
A "dot-wild-selector" acts as a wildcard by selecting the nodes of all member values of an object in its input nodelist as well as all element nodes of an array in its input nodelist.  Applying the "dot- <del> wild-selector" to a primitive JSON value (number, string, or true/false/null) selects no node. </del> <ins> wild-selector" to a primitive JSON value (a number, a string, "true", "false", or "null") selects no node. </ins> 3.4.3.3.
An "index-wild-selector" selects the nodes of all member values of an object as well as of all elements of an array.  Applying the "index- <del> wild-selector" to a primitive JSON value (such as a number, string, or true/false/null) selects no node. </del> <ins> wild-selector" to a primitive JSON value (that is, a number, a string, "true", "false", or "null") selects no node. </ins> The "index-wild-selector" behaves identically to the "dot-wild- selector".
contained in the current lean syntax "[?<expr>]" as a special case. Comparisons are restricted to Singular Path values and primitive <del> values (such as number, string, "true", "false", "null"). </del> <ins> values (that is, numbers, strings, "true", "false", and "null"). </ins> Alphabetic characters in ABNF are case-insensitive, so "e" can be either "e" or "E".
consisting of a single node, each such path is replaced by the value of its node and then: <del> comparison using one of the operators "==" yields true if and only if the comparison is between equal primitive values. </del> <ins> a comparison using the operator "==" yields true if and only if the comparison is between values of the same primitive type (numbers, strings, booleans, and "null") which are equal. </ins> <del> comparisons using one of the operators "<=" or ">=" yield true if and only if the comparison is between numeric values which satisfy the comparison. </del> <ins> a comparison using the operator "!=" yields true if and only if the comparison is not between values of the same primitive type (numbers, strings, booleans, and "null") which are equal. </ins> <del> any comparison of two values using one of the operators "!=", ">", "<" is defined as the negation of the comparison of the same values using the operator "==", "<=", ">=", respectively. </del> <ins> a comparison using one of the operators "<", "<=", ">", or ">=" yields true if and only if the comparison is between values of the same type which are both numbers or both strings and which satisfy the comparison: </ins> <del> Note that "==" comparisons between a structured value and any value, including the same structured value, yield false.  Consequently, "!=" comparisons between a structured value and any value, including the same structured value, yield true. </del> <ins> numbers in the I-JSON RFC7493 range of exact values MUST compare using the normal mathematical ordering; one or both numbers outside that range MAY compare using an implementation specific ordering the empty string compares less than any non-empty string a non-empty string compares less than another non-empty string if and only if the first string starts with a lower Unicode scalar value than the second string or if both strings start with the same Unicode scalar value and the remainder of the first string compares less than the remainder of the second string. Note that "==" comparisons between a structured value (that is, an object or an array) and any value, including the same structured value, yield false and "!=" comparisons between a structured value and any value, including the same structured value, yield true. </ins> 3.4.7.2.2.1.
Additional terms used in this specification are defined below. <ins> 1.1.1. This specification models the argument as a tree of JSON values, each with its own node.  A node is either the root node or one of its descendants. This specification models the result of applying a query to the argument as a nodelist (a list of nodes). So nodes are the selectable parts of the argument.  The only parts of an object that can be selected by a query are the member values. Member names and members (name/value pairs) cannot be selected.  So member values have nodes, but members and member names do not. Similarly, member values are children of an object, but members and member names are not. </ins> 1.2. This section is informative.
A syntactically valid segment MUST NOT produce errors when executing the query.  This means that some operations that might be considered <del> erroneous, such as indexing beyond the end of an array, simply result in fewer nodes being selected. </del> <ins> erroneous, such as using an index lying outside the range of an array, simply result in fewer nodes being selected. </ins> Consider this example.  With the argument "{"a":[{"b":0},{"b":1},{"c":2}]}", the query "$.a[*].b" selects the
2.5.3.2. <del> The "index-selector" applied to an array selects an array element using a zero-based index.  For example, the selector "0" selects the first and the selector "4" selects the fifth element of a </del> <ins> A non-negative "index-selector" applied to an array selects an array element using a zero-based index.  For example, the selector "0" selects the first and the selector "4" selects the fifth element of a </ins> sufficiently long array.  Nothing is selected, and it is not an error, if the index lies outside the range of the array.  Nothing is selected from a value that is not an array.
as slice bounds and must first be normalized.  Normalization for this purpose is defined as: <del> The result of the array indexing expression "i" applied to an array of length "len" is defined to be the result of the array slicing </del> <ins> The result of the array index expression "i" applied to an array of length "len" is defined to be the result of the array slicing </ins> expression "Normalize(i, len):Normalize(i, len)+1:1". Slice expression parameters "start" and "end" are used to derive
the lower bound and which is the upper bound: The slice expression selects elements with indices between the lower <del> and upper bounds.  In the following pseudocode, the "a(i)" construct expresses the 0-based indexing operation on the underlying array. </del> <ins> and upper bounds.  In the following pseudocode, "a(i)" is the "i+1"th element of the array "a" (i.e., "a(0)" is the first element, "a(1)" the second, and so forth). </ins> When "step = 0", no elements are selected and the result array is empty.
.  A string is a well-formed JSONPath query if it conforms to the ABNF syntax in this document.  A well-formed JSONPath query is valid <del> if it also fulfills all semantic requirements posed by this document. </del> <ins> if it also fulfills all semantic requirements posed by this document, which are: </ins> <del> To be valid, integer numbers in the JSONPath query that are relevant to the JSONPath processing (e.g., index values and steps) MUST be within the range of exact values defined in I-JSON RFC7493, namely within the interval [-(2 </del> <ins> Integer numbers in the JSONPath query that are relevant to the JSONPath processing (e.g., index values and steps) MUST be within the range of exact values defined in I-JSON RFC7493, namely within the interval [-(2 </ins> <del> )+1, (2 </del> <ins> )+1, (2 </ins> <del> )-1]). </del> <ins> )-1]. </ins> <del> To be valid, strings on the right-hand side of the "=~" regex matching operator need to conform to I-D.draft-ietf-jsonpath-iregexp. </del> <ins> Strings on the right-hand side of the "=~" regex matching operator MUST conform to I-D.draft-ietf-jsonpath-iregexp. </ins> The well-formedness and the validity of JSONPath queries are independent of the JSON value the query is applied to; no further
Note: "double-quoted" strings follow the JSON string syntax (RFC8259); "single-quoted" strings follow an analogous pattern <del> (syntax-index). </del> <ins> (syntax-index).  No attempt was made to improve on this syntax, so characters with scalar values above 0x10000, such as U+0026 U+0023 U+0031 U+0032 U+0039 U+0033 U+0030 U+0030 U+003B ("&#129300;", AMPERSAND, NUMBER SIGN, DIGIT ONE, DIGIT TWO, DIGIT NINE, DIGIT THREE, DIGIT ZERO, DIGIT ZERO, SEMICOLON), need to be represented by a pair of surrogate escapes (""uD83EuDD14"" in this case). </ins> 2.5.1.2.
primitive values (that is, numbers, strings, "true", "false", and "null").  These can be obtained via literal values; Singular Queries, each of which selects at most one node the value of which is then <del> used; and function expressions (see fnex) of type "ValueType" or "NodesType" (see type-conv). </del> <ins> used; and function expressions (see fnex) of type "ValueType". </ins> Literals can be notated in the way that is usual for JSON (with the extension that strings can use single-quote delimiters).  Alphabetic
Clients are configured to use IP proxying over HTTP via an URI Template TEMPLATE.  The URI template MAY contain two variables: <del> "target" and "ipproto" (scope).  The optionality of the variables </del> <ins> "target" and "ipproto"; see scope.  The optionality of the variables </ins> needs to be considered when defining the template so that either the variable is self-identifying or it is possible to exclude it in the syntax.
To initiate an IP tunnel associated with a single HTTP stream, a client issues a request containing the "connect-ip" upgrade token. <del> The target of the tunnel is indicated by the client to the IP proxy via the "target_host" and "target_port" variables of the URI Template; see client-config. </del> When sending its IP proxying request, the client SHALL perform URI template expansion to determine the path and query of its request, see client-config. <del> A successful response indicates that the IP proxy is willing to open an IP forwarding tunnel between it and the client.  Any response other than a successful response indicates that the tunnel has not been formed. </del> <ins> By virtue of the definition of the Capsule Protocol (see HTTP-DGRAM), IP proxying requests do not carry any message content.  Similarly, successful IP proxying responses also do not carry any message content. 4.1. Upon receiving an IP proxying request: if the recipient is configured to use another HTTP proxy, it will act as an intermediary by forwarding the request to another HTTP server.  Note that such intermediaries may need to re-encode the request if they forward it using a version of HTTP that is different from the one used to receive it, as the request encoding differs by version (see below). otherwise, the recipient will act as an IP proxy.  It extracts the optional "target" and "ipproto" variables from the URI it has reconstructed from the request headers, decodes their percent- encoding, and establishes an IP tunnel. IP proxies MUST validate whether the decoded "target" and "ipproto" variables meet the requirements in scope.  If they do not, the IP proxy MUST treat the request as malformed; see H2 and H3.  If the "target" variable is a DNS name, the IP proxy MUST perform DNS resolution before replying to the HTTP request.  If errors occur during this process, the IP proxy MUST reject the request and SHOULD send details using an appropriate Proxy-Status header field PROXY- STATUS.  For example, if DNS resolution returns an error, the proxy can use the "dns_error" Proxy Error Type from PROXY-STATUS. </ins> The lifetime of the IP forwarding tunnel is tied to the IP proxying request stream.  The IP proxy MUST maintain all IP address and route
tunnel due to a period of inactivity, but they MUST close the request stream when doing so. <ins> A successful response (as defined in Sections resp1 and resp23) indicates that the IP proxy has established an IP tunnel and is willing to proxy IP payloads.  Any response other than a successful response indicates that the request has failed; thus, the client MUST abort the request. </ins> Along with a successful response, the IP proxy can send capsules to assign addresses and advertise routes to the client (capsules).  The client can also assign addresses and advertise routes to the IP proxy for network-to-network routing. <del> By virtue of the definition of the Capsule Protocol (see HTTP-DGRAM), IP proxying requests do not carry any message content.  Similarly, successful IP proxying responses also do not carry any message content. 4.1. </del> <ins> 4.2. </ins> When using HTTP/1.1 H1, an IP proxying request will meet the following requirements:
IP packet forwarding, or a specific proxied flow; see scope. An IP proxying request that does not conform to these restrictions is <del> malformed (see H2 and H3). </del> <ins> malformed; see H2 and H3. </ins> For example, if the client is configured with URI Template "https://example.org/.well-known/masque/ip/{target}/{ipproto}/" and wishes to open an IP forwarding tunnel with no target or protocol limitations, it could send the following request: <del> 4.4. </del> <ins> 4.5. </ins> The IP proxy indicates a successful response by replying with the following requirements:
If present, the IP prefix length in "target" SHALL be preceded by a percent-encoded slash ("/"): "%2F".  The IP prefix length MUST <del> represent an integer between 0 and the length of the IP address in bits, inclusive. </del> <ins> represent a decimal integer between 0 and the length of the IP address in bits, inclusive. </ins> <del> "ipproto" MUST represent an integer between 0 and 255 inclusive, or the wildcard value "*". </del> <ins> "ipproto" MUST represent a decimal integer between 0 and 255 inclusive, or the wildcard value "*". </ins> IP proxies MAY perform access control using the scoping information provided by the client: if the client is not authorized to access any of the destinations included in the scope, then the IP proxy can immediately fail the request. <del> 4.6. </del> <ins> 4.7. </ins> This document defines multiple new capsule types that allow endpoints to exchange IP configuration information.  Both endpoints MAY send any number of these new capsules. <del> 4.6.1. </del> <ins> 4.7.1. </ins> The ADDRESS_ASSIGN capsule (see iana-types for the value of the capsule type) allows an endpoint to inform its peer of the list of IP
4.2.1. The ADDRESS_ASSIGN capsule allows an endpoint to inform its peer that <del> it has assigned an IP address to it.  It allows assigning a prefix which can contain multiple addresses.  This capsule uses a Capsule Type of 0xfff100.  Its value uses the following format: </del> <ins> it has assigned an IP address or prefix to it.  The ADDRESS_ASSIGN capsule allows assigning a prefix which can contain multiple addresses.  Any of these addresses can be used as the source address on IP packets originated by the receiver of this capsule.  This capsule uses a Capsule Type of 0xfff100.  Its value uses the following format: </ins> IP Version of this address assignment.  MUST be either 4 or 6.
The number of bits in the IP Address that are used to define the prefix that is being assigned.  This MUST be less than or equal to the length of the IP Address field, in bits.  If the prefix length <del> is equal to the length of the IP Address, the endpoint is only allowed to send packets from a single source address.  If the prefix length is less than the length of the IP address, the endpoint is allowed to send packets from any source address that falls within the prefix. </del> <ins> is equal to the length of the IP Address, the receiver of this capsule is only allowed to send packets from a single source address.  If the prefix length is less than the length of the IP address, the receiver of this capsule is allowed to send packets from any source address that falls within the prefix. </ins> If an endpoint receives multiple ADDRESS_ASSIGN capsules, all of the assigned addresses or prefixes can be used.  For example, multiple
notifies its peer that if the receiver of the ROUTE_ADVERTISEMENT capsule sends IP packets for this prefix in HTTP Datagrams, the sender of the capsule will forward them along its preexisting route. <del> This capsule uses a Capsule Type of 0xfff102.  Its value uses the following format: </del> <ins> Any of these addresses can be used as the destination address on IP packets originated by the receiver of this capsule.  This capsule uses a Capsule Type of 0xfff102.  Its value uses the following format: </ins> IP Version of this route advertisement.  MUST be either 4 or 6.
requesting full-tunnel IP packet forwarding, or a specific proxied flow, see scope. <del> Along with a request, the client can send a REGISTER_DATAGRAM_CONTEXT capsule HTTP-DGRAM to negotiate support for sending IP packets in HTTP Datagrams (packet-handling). </del> <ins> The client SHOULD also include the "Capsule-Protocol" header with a value of "?1" to negotiate support for sending and receiving HTTP capsules (HTTP-DGRAM). </ins> Any 2xx (Successful) response indicates that the proxy is willing to open an IP forwarding tunnel between it and the client.  Any response
request with a failure, or if the datagrams are received by the proxy before the request. <del> Extensions to this mechanism MAY define new HTTP Datagram Format Types in order to use different semantics or encodings for IP payloads.  For example, an extension could define a new HTTP Datagram Format Type which enables compression of IP header fields. </del> When a CONNECT-IP endpoint receives an HTTP Datagram containing an IP packet, it will parse the packet's IP header, perform any local policy checks (e.g., source address validation), check their routing