mhurhangee/patent-ind-claim-en huggingface dataset:
A method for handling a blockchain service, the method comprising: receiving (S101), by a first application of a consensus node, a service request sent by a client, wherein the consensus node comprises the first application, a second application, and a first database; determining (S101) to-be-sent service data corresponding to the service request; storing (S102), by the first application, the to-be-sent service data in the first database; when a predetermined condition is satisfied, fetching (S103), by the second application or the first application, the to-be-sent service data from the first database; sending (S103) the to-be-sent service data to a second consensus node for storage receiving (S201), by the first application, consensus data, and storing the consensus data in the first database; fetching (S202), by the second application, the consensus data from the first database; in response to fetching, by the second application, the consensus data from the first database, performing (S202) consensus verification; adding (S203), by the second application, a verification result to the consensus data; storing (S203) the verification result in the first database; and sending (S203) the verification result to the second consensus node to continue performing the consensus verification. receiving (S101), by a first application of a consensus node, a service request sent by a client, wherein the consensus node comprises the first application, a second application, and a first database; determining (S101) to-be-sent service data corresponding to the service request; storing (S102), by the first application, the to-be-sent service data in the first database; when a predetermined condition is satisfied, fetching (S103), by the second application or the first application, the to-be-sent service data from the first database; sending (S103) the to-be-sent service data to a second consensus node for storage receiving (S201), by the first application, consensus data, and storing the consensus data in the first database; fetching (S202), by the second application, the consensus data from the first database; in response to fetching, by the second application, the consensus data from the first database, performing (S202) consensus verification; adding (S203), by the second application, a verification result to the consensus data; storing (S203) the verification result in the first database; and sending (S203) the verification result to the second consensus node to continue performing the consensus verification.
A message decapsulation method, applied to a second node, comprising: decapsulating (S102) a data packet sent by a first node; wherein the data packet is obtained by encapsulating, by the first node, a data message sent through a first Attachment Circuit, AC, the data packet carries a split horizon attribute of the first AC determined by the first node, and the split horizon attribute of the first AC comprises at least one of the following: a leaf attribute, a root attribute; and the leaf attribute or the root attribute indicates a node attribute of a user-side interface corresponding to the first AC in an E-Tree service; wherein a format of the data packet comprise one of the following: Generic Network Virtualization Encapsulation, Geneve, and Virtual Extensible Local Area Network Generic Protocol Extension, VXLAN-GPE. decapsulating (S102) a data packet sent by a first node; wherein the data packet is obtained by encapsulating, by the first node, a data message sent through a first Attachment Circuit, AC, the data packet carries a split horizon attribute of the first AC determined by the first node, and the split horizon attribute of the first AC comprises at least one of the following: a leaf attribute, a root attribute; and the leaf attribute or the root attribute indicates a node attribute of a user-side interface corresponding to the first AC in an E-Tree service; wherein a format of the data packet comprise one of the following: Generic Network Virtualization Encapsulation, Geneve, and Virtual Extensible Local Area Network Generic Protocol Extension, VXLAN-GPE.
A lipped tray , for use on scaffolding towers, comprising a base portion , having a generally rectangular profile including two long sides, a first small side and a second small side , an upwardly extending lip provided around the perimeter of the base portion , a first downwardly extending skirt portion provided along one of the long sides of the base portion , a second downwardly extending skirt portion provided along the other of the long sides of the base portion , wherein a first recessed arc is provided at one end of the first skirt portion , and a corresponding second recessed arc is provided in the second skirt portion , wherein the first and second recessed arcs (26a and 26b) are provided at a position substantially the same distance from the first end of the base portion , wherein a third recessed arc is provided at one end of the first skirt portion , and a corresponding fourth recessed arc is provided in the second skirt portion , wherein the third and fourth recessed arcs (28a and 28b) are provided at a position substantially the same distance from the second end of the base portion , wherein the diameter of the recessed arcs is sufficient to receive a scaffolding pole . a base portion , having a generally rectangular profile including two long sides, a first small side and a second small side , an upwardly extending lip provided around the perimeter of the base portion , a first downwardly extending skirt portion provided along one of the long sides of the base portion , a second downwardly extending skirt portion provided along the other of the long sides of the base portion , wherein a first recessed arc is provided at one end of the first skirt portion , and a corresponding second recessed arc is provided in the second skirt portion , wherein the first and second recessed arcs (26a and 26b) are provided at a position substantially the same distance from the first end of the base portion , wherein a third recessed arc is provided at one end of the first skirt portion , and a corresponding fourth recessed arc is provided in the second skirt portion , wherein the third and fourth recessed arcs (28a and 28b) are provided at a position substantially the same distance from the second end of the base portion , wherein the diameter of the recessed arcs is sufficient to receive a scaffolding pole .
An arrangement for determining three-dimensional and time domain properties of an interface of an object, the arrangement comprising means for low coherence interferometric imaging, wherein the means for interferometric imaging comprises: - a light source , - imaging means for forming an interference image based on interference between light arriving at the imaging means from the interface of the object and light arriving at the imaging means from a reference path related to the low coherence interferometric imaging, and - means for forming the reference path from the light source to the imaging means, for directing light from the light source towards the interface of the object, and for directing light from the interface of the object to the imaging means, characterized in that the arrangement further comprises means constituting a near field modifying structure for forming, from the light directed towards the interface of the object, one or more photonic jets directed to the interface of the object, wherein the means for low coherence interferometric imaging is arranged to perform the low coherence interferometric imaging through the means constituting the near field modifying structure. - a light source , - imaging means for forming an interference image based on interference between light arriving at the imaging means from the interface of the object and light arriving at the imaging means from a reference path related to the low coherence interferometric imaging, and - means for forming the reference path from the light source to the imaging means, for directing light from the light source towards the interface of the object, and for directing light from the interface of the object to the imaging means,
An image reading apparatus comprising: reading means configured to read an image of a document set on a document platen ; document forgetting detection means configured to execute a detection process for detecting forgetting of the document on the document platen ; an operation unit into which a user instruction by a user is input; and control means configured to receive a user instruction, which is input via the operation unit , for reading a document, characterized in that the control means is further configured to, in a case where a function of reading a plurality of pages, wherein the function of reading a plurality of pages is at least one of N-in-1 copying and two-sided copying, where N is an integer greater than 1, is set by a user via the operation unit , perform control to cause the detection process not to be executed on at least one page other than a last page of the document when the reading process for a current page has completed normally, and to be executed on the last page of the document, wherein the last page of the document is indicated by a user instruction for starting printing of the document or ending reading of the document, and the control means is further configured to determine that the execution of the detection process is necessary on at least one page other than the last page of the document when the reading process for a current page has not completed normally. reading means configured to read an image of a document set on a document platen ; document forgetting detection means configured to execute a detection process for detecting forgetting of the document on the document platen ; an operation unit into which a user instruction by a user is input; and control means configured to receive a user instruction, which is input via the operation unit , for reading a document, characterized in that the control means is further configured to, in a case where a function of reading a plurality of pages, wherein the function of reading a plurality of pages is at least one of N-in-1 copying and two-sided copying, where N is an integer greater than 1, is set by a user via the operation unit , perform control to cause the detection process not to be executed on at least one page other than a last page of the document when the reading process for a current page has completed normally, and to be executed on the last page of the document, wherein the last page of the document is indicated by a user instruction for starting printing of the document or ending reading of the document, and the control means is further configured to determine that the execution of the detection process is necessary on at least one page other than the last page of the document when the reading process for a current page has not completed normally.
A method for communication between femto access points, APs, comprising: generating, by a key server, KS, a key; creating, by a first femto AP with the KS, a first tunnel between the first femto AP and the KS, and downloading, by the first femto AP, the key as a first key and an access control list, ACL, from the KS through the first tunnel using a group domain of interpretation, GDOI, protocol, wherein the ACL is configured to indicate a data flow access rule between the first femto AP and a second femto AP, wherein the first key is a traffic encryption key, TEK, secured by a key encryption key, KEK; creating, by a second femto AP with the KS, a second tunnel between the second femto AP and the KS, and downloading, by the second femto AP, the key as a second key from the KS through the second tunnel; encrypting, by the first femto AP, first data using the first key to obtain encrypted first data, and sending the encrypted first data to the second femto AP according to the data flow access rule indicated by the ACL, decrypting, by the second femto AP, the encrypted first data using the second key, wherein the first femto AP and the second femto AP belong to a same GDOI group. generating, by a key server, KS, a key; creating, by a first femto AP with the KS, a first tunnel between the first femto AP and the KS, and downloading, by the first femto AP, the key as a first key and an access control list, ACL, from the KS through the first tunnel using a group domain of interpretation, GDOI, protocol, wherein the ACL is configured to indicate a data flow access rule between the first femto AP and a second femto AP, wherein the first key is a traffic encryption key, TEK, secured by a key encryption key, KEK; creating, by a second femto AP with the KS, a second tunnel between the second femto AP and the KS, and downloading, by the second femto AP, the key as a second key from the KS through the second tunnel; encrypting, by the first femto AP, first data using the first key to obtain encrypted first data, and sending the encrypted first data to the second femto AP according to the data flow access rule indicated by the ACL, decrypting, by the second femto AP, the encrypted first data using the second key, wherein the first femto AP and the second femto AP belong to a same GDOI group.
A cold generation device implementing the "Joule-Thomson" expansion principle, comprising a heat exchanger having a fluid under high pressure and under low pressure circulating in counterflow therein, wherein the heat exchanger is formed of a stack of pellets made of a porous material, and particularly a sintered material, forming a cylindrical mandrel, having a capillary wound at the periphery thereof and in contact therewith, the capillary having the high-pressure fluid circulating therethrough, the low-pressure fluid circulating in counterflow inside of the porous mandrel thus formed, characterized in that between each of the pellets is interposed a thermally-insulating porous element .
A correction and testing system , wherein the correction and testing system comprises a first phased array , a second phased array , and a test instrument , wherein the first phased array is a to-be-tested phased array, the first phased array comprises a first radio frequency RF channel , second phased array comprises a second RF channel , a topology of the first RF channel has a mirror symmetry relationship with a topology of the second RF channel, the second phased array disposed face to face with the to-be-tested first phased array, and a radiation front of the second phased array and a radiation front of the first phased array are spaced by a subwavelength distance; the second phased array is configured to receive, through the second RF channel, a coupling signal sent by the first phased array through the first RF channel; the test instrument is configured to determine, based on the coupling signal, an amplitude deviation value and a phase deviation value that correspond to the first RF channel; the test instrument is configured to correct an amplitude coefficient and a phase coefficient that correspond to the first RF channel to obtain a target amplitude coefficient and a target phase coefficient, if the amplitude deviation value and the phase deviation value satisfy a preset error correction condition; and the test instrument is configured to measure performance indicator parameters of the first phased array by using the target amplitude coefficient and the target phase coefficient. the second phased array is configured to receive, through the second RF channel, a coupling signal sent by the first phased array through the first RF channel; the test instrument is configured to determine, based on the coupling signal, an amplitude deviation value and a phase deviation value that correspond to the first RF channel; the test instrument is configured to correct an amplitude coefficient and a phase coefficient that correspond to the first RF channel to obtain a target amplitude coefficient and a target phase coefficient, if the amplitude deviation value and the phase deviation value satisfy a preset error correction condition; and the test instrument is configured to measure performance indicator parameters of the first phased array by using the target amplitude coefficient and the target phase coefficient.
A 3-dimensional printed part having an integrated strain sensor, comprising: a part body formed of fused thermoplastic polymer particles; and a resistor formed of a matrix of sintered elemental transition metal particles interlocked with a matrix of fused thermoplastic polymer particles, wherein the matrix of fused thermoplastic polymer particles is continuously fused to the fused thermoplastic polymer particles of the part body. a part body formed of fused thermoplastic polymer particles; and a resistor formed of a matrix of sintered elemental transition metal particles interlocked with a matrix of fused thermoplastic polymer particles, wherein the matrix of fused thermoplastic polymer particles is continuously fused to the fused thermoplastic polymer particles of the part body.
Microorganism or mixture comprising or consisting of two or more microorganisms for use in the treatment and/or prevention of inflammation in the oral cavity, preferably for use in the treatment and/or prevention of gingivitis and/or peridontitis, wherein the microorganism(s) is/are selected from the group consisting of Lactobacillus paracasei LPc-G110 (CCTCC M 2013691), Lactobacillus plantarum GOS 42 (DSM 32131), Lactobacillus delbrueckii subsp. lactis LL-G41 (CCTCC M 2016652), Lactobacillus plantarum Heal19 (DSM 15313) and Lactobacillus paracasei NS9 (NCIMB 8823).
Heat exchanger plate comprising openings (5, 6; 7, 8) and an edge extending between two of the openings (5, 6; 7, 8), a groove running along the edge , and a corrugated area having crests and troughs between the groove and the edge , wherein crests run perpendicular to the edge , characterized in that the corrugated area comprises at least two different sections , wherein in a first section adjacent crests are connected by a first connecting wall and in a second section at least one crest is flanked at both sides by a space between the crests that is open to the groove .
A device for packaging and applying a cosmetic product, of longitudinal axis X, this device having a container for containing said product and a stem connected by a first end to a gripping part and by a second end to an application element comprising an application head and an end piece mounted in a housing of the stem , the end piece has a frustoconical portion fitted in a complementary frustoconical space provided in the housing of the stem , this device being characterized in that the frustoconical portion has an elongate flat along the longitudinal axis X of the device.
A ground surface access assembly support frame , forming part of a ground surface access assembly , said support frame comprising a base-plate/flange , and one or more sidewall portions , wherein an upper surface of said base-plate/flange of the support frame or the outer surface of an inclined sidewall portion of the support frame has a cluster of closely-spaced smooth-surfaced protrusions , wherein said closely-spaced smooth-surfaced protrusions have no sharp edges; such that following installation said smooth-surfaced protrusions provide improved adherence of the base plate to structural infill bonding material while avoiding stress induced cracks propagating, in the infill bonding material, from said protrusions, when the installed ground surface access assembly is subject to severe or repetitive loads/shocks.
A filter element for the filtration of gaseous fluids, comprising a filter media pack having a longitudinal axis, and a circumferential seal support structure sealingly coupled to a sidewall of said media pack , said seal support structure further comprising a first seal and a second seal ; wherein axial projections of said first and said second seal along said longitudinal axis (A) on a plane perpendicular to said longitudinal axis define a first and a second closed perimeter (P1, P2), and wherein the areas corresponding to said first and said second closed perimeter (P1, P2) comprise a non-overlap region (N), characterised in that said non-overlap region (N) is arranged asymmetrically with respect to said first and/or said second closed perimeter (P1, P2).
An apparatus to process an encrypted request received over a named-data network, the apparatus comprising: a communication mechanism to receive an Interest packet that includes a name for a piece of data or a service requested by a client device, wherein the Interest's name includes a routable prefix, a session identifier, and an encrypted name suffix; and a cryptography mechanism to obtain a decryption key, and to decrypt the encrypted name suffix using the decryption key to obtain a plaintext suffix; wherein obtaining the decryption key comprises generating the decryption key based on the session identifier. a communication mechanism to receive an Interest packet that includes a name for a piece of data or a service requested by a client device, wherein the Interest's name includes a routable prefix, a session identifier, and an encrypted name suffix; and a cryptography mechanism to obtain a decryption key, and to decrypt the encrypted name suffix using the decryption key to obtain a plaintext suffix; wherein obtaining the decryption key comprises generating the decryption key based on the session identifier.
An irradiation device for irradiating a radiation absorbing medium with electromagnetic radiation , the irradiation device comprising a radiation source configured to generate one or more pulses of electromagnetic radiation and to irradiate the medium with the one or more pulses of electromagnetic radiation , and a control unit configured to control the radiation source such that the time course of the power (P) or intensity (I) of at least one pulse of the one or more pulses of electromagnetic radiation exhibits a rising slope and/or a falling slope , characterized in that the rising slope and/or falling slope having a maximum gradient which is smaller than a predetermined gradient value, whereby a generation of optoacoustic waves in the medium in response to the rising slope or falling slope , respectively, is avoided, the predetermined gradient value being calculable by considering: - a maximum power (P max ) applied to the medium by irradiating the medium with the at least one pulse of electromagnetic radiation , - a length (d) characterizing a dimension of a heat heterogeneity in the medium and/or corresponding to a decay constant of the electromagnetic energy deposition in the medium , and - the thermal diffusivity (α th ) of the medium . - a maximum power (P max ) applied to the medium by irradiating the medium with the at least one pulse of electromagnetic radiation , - a length (d) characterizing a dimension of a heat heterogeneity in the medium and/or corresponding to a decay constant of the electromagnetic energy deposition in the medium , and - the thermal diffusivity (α th ) of the medium .