mhurhangee/patent-ind-claim-en huggingface dataset:
An image forming apparatus comprising: - setting means for making a setting for rejecting reception of a command including authentication information which uses plain text; - reception means for receiving a command including authentication information via a network ; - determination means for determining whether or not the received command uses plain text authentication; - control means for executing, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via an encrypted communication path (S722, NO), the received command, depending on authentication performed based on the authentication information, and not executing the received command, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via a communication path which is not encrypted (S722, YES); - wherein the control means is configured to send (S724) an error notification indicative of access rejection, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received from outside the image forming apparatus via a communication path which is not encrypted (S722, YES; S723, YES). - setting means for making a setting for rejecting reception of a command including authentication information which uses plain text; - reception means for receiving a command including authentication information via a network ; - determination means for determining whether or not the received command uses plain text authentication; - control means for executing, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via an encrypted communication path (S722, NO), the received command, depending on authentication performed based on the authentication information, and not executing the received command, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via a communication path which is not encrypted (S722, YES); - wherein the control means is configured to send (S724) an error notification indicative of access rejection, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received from outside the image forming apparatus via a communication path which is not encrypted (S722, YES; S723, YES).
A method for paging a user equipment , UE, by a mobility management entity , MME, in a communication system, the method comprising: receiving , from a serving gateway , SGW, a downlink data notification, DDN, message associated with a packet switched, PS, service for the UE ; transmitting , to an evolved Node B , eNB, a paging message for the PS service without a paging priority based on the DDN message; while waiting for a response of the UE to the paging message for the PS service without the paging priority, receiving , from a mobile switching center , MSC, via an interworking solution , IWS, a paging request message associated with a circuit switched, CS, service for the UE, the paging request message including a priority indication; and transmitting , to the eNB , a paging message for the CS service based on the paging request message, the paging message for the CS service including the paging priority and domain information, wherein the paging priority indicates to handle the paging message for the CS service in preference to the paging message for the PS service. receiving , from a serving gateway , SGW, a downlink data notification, DDN, message associated with a packet switched, PS, service for the UE ; transmitting , to an evolved Node B , eNB, a paging message for the PS service without a paging priority based on the DDN message; while waiting for a response of the UE to the paging message for the PS service without the paging priority, receiving , from a mobile switching center , MSC, via an interworking solution , IWS, a paging request message associated with a circuit switched, CS, service for the UE, the paging request message including a priority indication; and transmitting , to the eNB , a paging message for the CS service based on the paging request message, the paging message for the CS service including the paging priority and domain information, wherein the paging priority indicates to handle the paging message for the CS service in preference to the paging message for the PS service.
A method for polar code puncturing, comprising: receiving (S1310) a mother polar code including a sequence of coded bits , the sequence of coded bits having indices {0, ..., N-1} and including at least a first block of coded bits (B0) having indices {0, ..., i-1}, a second block of coded bits (B1) having indices {i, ..., i+k-1}, a third block of coded bits (B2) having indices {i+k, ..., i+k+k-1}, and a fourth block of coded bits (B3) having indices {i+k+k,..., N-1}; wherein the mother polar code is generated based on a generator matrix G N having a form of G N = F ⊗n , where F ⊗n denotes an n-th Kronecher product of a basis matrix F = 1 0 1 1 ; characterized by : interleaving (S1320) the coded bits of the second block of coded bits (B1) with the coded bits of the third block of coded bits (B2) to form a rearranged sequence of coded bits including the N coded bits and having the indices {..., i, i+k, ..., i+k-1, i+k+k-1, ...}; and extracting (S1330) the last M coded bits having indices {N-M,...,N-1} from the rearranged sequence of coded bits to generate a punctured code having a length of M. receiving (S1310) a mother polar code including a sequence of coded bits , the sequence of coded bits having indices {0, ..., N-1} and including at least a first block of coded bits (B0) having indices {0, ..., i-1}, a second block of coded bits (B1) having indices {i, ..., i+k-1}, a third block of coded bits (B2) having indices {i+k, ..., i+k+k-1}, and a fourth block of coded bits (B3) having indices {i+k+k,..., N-1}; wherein the mother polar code is generated based on a generator matrix G N having a form of G N = F ⊗n , where F ⊗n denotes an n-th Kronecher product of a basis matrix F = 1 0 1 1 ; characterized by : interleaving (S1320) the coded bits of the second block of coded bits (B1) with the coded bits of the third block of coded bits (B2) to form a rearranged sequence of coded bits including the N coded bits and having the indices {..., i, i+k, ..., i+k-1, i+k+k-1, ...}; and extracting (S1330) the last M coded bits having indices {N-M,...,N-1} from the rearranged sequence of coded bits to generate a punctured code having a length of M. interleaving (S1320) the coded bits of the second block of coded bits (B1) with the coded bits of the third block of coded bits (B2) to form a rearranged sequence of coded bits including the N coded bits and having the indices {..., i, i+k, ..., i+k-1, i+k+k-1, ...}; and extracting (S1330) the last M coded bits having indices {N-M,...,N-1} from the rearranged sequence of coded bits to generate a punctured code having a length of M.
A nozzle for a fuel injector comprising: a pivotably symmetrical nozzle member having a hollow space for introducing a nozzle needle ; a nozzle tip that is provided at a longitudinal end of the nozzle member and has at least one opening for discharging fuel: and a nozzle needle arranged in the hollow space for the selective blocking of a fuel supply to the at least one opening , wherein the nozzle needle is designed as tubular in the region of the nozzle tip and is adapted to conduct fuel in the interior of the tubular region toward the at least one opening .; and the nozzle tip has a conical elevated portion toward the hollow space for the nozzle needle whose tip penetrates into the interior of the tubular region of the nozzle needle in a closed state of the nozzle , characterized in that the at least one opening for the discharge of fuel is adjacent to the jacket surface of the conical elevated portion , with an inner longitudinal margin of an at least one opening channel having the opening being aligned with the jacket surface so that fuel can be continuously guided from the jacket surface into the opening. a pivotably symmetrical nozzle member having a hollow space for introducing a nozzle needle ; a nozzle tip that is provided at a longitudinal end of the nozzle member and has at least one opening for discharging fuel: and a nozzle needle arranged in the hollow space for the selective blocking of a fuel supply to the at least one opening , wherein the nozzle needle is designed as tubular in the region of the nozzle tip and is adapted to conduct fuel in the interior of the tubular region toward the at least one opening .; and characterized in that the at least one opening for the discharge of fuel is adjacent to the jacket surface of the conical elevated portion , with an inner longitudinal margin of an at least one opening channel having the opening being aligned with the jacket surface so that fuel can be continuously guided from the jacket surface into the opening.
Lifting and tipping device for a refuse collection vehicle, comprising at least one electric drive , at least one electrically driven lifting truck and characterized in that the lifting and tipping device has at least one hydraulically operated load which is supplied with a hydraulic fluid by an electrohydraulic drive system , the electrohydraulic drive system having a pump which is operated by an electric drive and having a tank for the hydraulic fluid.
Method for manufacturing a composite material comprising functionalized carbon nanotubes and a metal matrix, characterized in that it comprises at least the following steps: i) dispersing functionalized carbon nanotubes, or a mixture of functionalized carbon nanotubes and at least one metal, in a metal foam having open or semi-open pores, to form a composite structure; ii) compacting the composite structure obtained at preceding step i) to form a composite material in the form of a solid mass. i) dispersing functionalized carbon nanotubes, or a mixture of functionalized carbon nanotubes and at least one metal, in a metal foam having open or semi-open pores, to form a composite structure; ii) compacting the composite structure obtained at preceding step i) to form a composite material in the form of a solid mass.
A method of generating high resolution images using a plenoptic camera, having a main lens in front of an array of microlenses and an image sensor, characterized in that it comprises: capturing a first set of images in a first unexcited state of operation by using a birefringent medium disposed between said main lens and said array of microlenses, said first unexcited state of said birefringent medium providing an ordinary ray on said image sensor; causing said first unexcited state to become a second excited state by applying a voltage across said birefringent medium; capturing a second set of images in said second excited state, said second excited state of said birefringent medium splitting the light from said main lens into another ordinary ray and an extraordinary ray, said extraordinary ray being shifted by a distance of one half-pixel from the other ordinary ray on said image sensor; subtracting pixel value associated with said first set of images from at least two times the pixel value associated with said second set of images; and generating a final set of images with high resolution from said subtraction and said first set of images. capturing a first set of images in a first unexcited state of operation by using a birefringent medium disposed between said main lens and said array of microlenses, said first unexcited state of said birefringent medium providing an ordinary ray on said image sensor; causing said first unexcited state to become a second excited state by applying a voltage across said birefringent medium; capturing a second set of images in said second excited state, said second excited state of said birefringent medium splitting the light from said main lens into another ordinary ray and an extraordinary ray, said extraordinary ray being shifted by a distance of one half-pixel from the other ordinary ray on said image sensor; subtracting pixel value associated with said first set of images from at least two times the pixel value associated with said second set of images; and generating a final set of images with high resolution from said subtraction and said first set of images.
A medical device comprising: a handpiece configured to transfer motion from an actuator to an end effector of the medical device, the handpiece including: a lumen extending through a portion of the handpiece ; a sleeve affixed to the handpiece , the sleeve extending through at least a portion of the lumen; and a shaft extending into the sleeve and affixed to the sleeve ; characterized in that the sleeve is affixed to the shaft by a weld; the medical device further comprising an aperture that extends through at least a portion of the handpiece intersecting the lumen, and wherein the sleeve is welded to the shaft along the aperture . a lumen extending through a portion of the handpiece ; a sleeve affixed to the handpiece , the sleeve extending through at least a portion of the lumen; and a shaft extending into the sleeve and affixed to the sleeve ; characterized in that the sleeve is affixed to the shaft by a weld; the medical device further comprising an aperture that extends through at least a portion of the handpiece intersecting the lumen, and wherein the sleeve is welded to the shaft along the aperture .
A quality of service, QoS, flow control method performed by an access network apparatus, comprising: receiving at least two QoS targets of a QoS flow from a session management function network element, wherein the QoS flow is a flow on which same QoS processing is performed; when a first QoS target of the QoS flow can't be met by the access network apparatus, wherein the first QoS target is different from the at least two QoS targets, determining a QoS target, based on an available resource of the access network apparatus, from the at least two QoS targets received from the session management function network element, wherein the determined QoS target is a QoS target that can be met by the access network apparatus; and sending, to the session management function network element, first indication information that indicates that the first QoS target of the QoS flow can't be met and a report of the determined QoS target that can be met by the access network apparatus. receiving at least two QoS targets of a QoS flow from a session management function network element, wherein the QoS flow is a flow on which same QoS processing is performed; when a first QoS target of the QoS flow can't be met by the access network apparatus, wherein the first QoS target is different from the at least two QoS targets, determining a QoS target, based on an available resource of the access network apparatus, from the at least two QoS targets received from the session management function network element, wherein the determined QoS target is a QoS target that can be met by the access network apparatus; and sending, to the session management function network element, first indication information that indicates that the first QoS target of the QoS flow can't be met and a report of the determined QoS target that can be met by the access network apparatus.
Method for adapting a first software application that is executed in a gateway (G) and controls the data transmission of the gateway, said gateway connecting one or more devices (D) of a local network to a cloud network (CN), - wherein machine learning is carried out by means of a second software application on the basis of at least one state (s, S) of the environment (E) of the gateway (G) and also of at least one possible action (a, A) of the gateway (G), - wherein the result of the machine learning contains at least one quality value of a pairing of state (s, S) of the environment of the gateway and action (a, A) of the gateway, and - wherein the first software application carries out those actions (a, A) of the gateway that, for a given state (s, S) of the environment of the gateway, have a higher quality value than other actions, wherein the second software application comprises a method for confirmation learning, and for each pairing of state (s) of the environment of the gateway and action (a) of the gateway there is an acknowledgement in the form of a reward (r), wherein the reward takes place on the basis of the minimisation of specific metrics and the metrics at least comprise the average slowing down of a job relative to the ideal duration of the job and the load of the resources of the gateway at that particular moment is used as the state of the environment (E) of the gateway (G). - wherein machine learning is carried out by means of a second software application on the basis of at least one state (s, S) of the environment (E) of the gateway (G) and also of at least one possible action (a, A) of the gateway (G), - wherein the result of the machine learning contains at least one quality value of a pairing of state (s, S) of the environment of the gateway and action (a, A) of the gateway, and - wherein the first software application carries out those actions (a, A) of the gateway that, for a given state (s, S) of the environment of the gateway, have a higher quality value than other actions, wherein the second software application comprises a method for confirmation learning, and for each pairing of state (s) of the environment of the gateway and action (a) of the gateway there is an acknowledgement in the form of a reward (r), wherein the reward takes place on the basis of the minimisation of specific metrics and the metrics at least comprise the average slowing down of a job relative to the ideal duration of the job and the load of the resources of the gateway at that particular moment is used as the state of the environment (E) of the gateway (G).
. A method for mitigating power failures in a wireless communication network, the method comprising: responsive to a determination that a primary power supply for a base station in the wireless communication network has failed or is predicted to fail, and initiating deployment of an unmanned aerial vehicle (108; 600) to the base station to charge one or more batteries coupled to the base station , wherein the one or more batteries provide a secondary power supply for the base station , the method characterized by further comprising: determining a predicted duration of the failure of the primary power supply, wherein the step of initiating deployment of an unmanned aerial vehicle (108; 600) is further responsive to a determination that the one or more batteries are unable to power the base station for the predicted duration of the failure of the primary power supply. responsive to a determination that a primary power supply for a base station in the wireless communication network has failed or is predicted to fail, and initiating deployment of an unmanned aerial vehicle (108; 600) to the base station to charge one or more batteries coupled to the base station , wherein the one or more batteries provide a secondary power supply for the base station ,
5-amino-2,3-dihydro-1,4-phthalazinedione or one of its pharmaceutically acceptable salts for use in the prophylaxis or treatment of inflammatory pulmonary diseases by inhalatory administration, wherein a vibrating mesh nebulizer releases for the inhalatory administration an aerosol containing liquid droplets of 5-amino-2,3-dihydro-1,4-phthalazinedione or one of its pharmaceutically acceptable salts, and the median mass aerodynamic diameter of the liquid droplets of the aerosol is between 3.0 μm and 3.3 μm, and said aerosol is characterized in that the fine particle mass is at least 50% of the liquid droplets of the aerosol, wherein the fine particle mass indicates the percentage of the liquid droplets with a diameter in the range of 1.0 to 5.0 μm. wherein a vibrating mesh nebulizer releases for the inhalatory administration an aerosol containing liquid droplets of 5-amino-2,3-dihydro-1,4-phthalazinedione or one of its pharmaceutically acceptable salts, and the median mass aerodynamic diameter of the liquid droplets of the aerosol is between 3.0 μm and 3.3 μm, and said aerosol is characterized in that the fine particle mass is at least 50% of the liquid droplets of the aerosol, wherein the fine particle mass indicates the percentage of the liquid droplets with a diameter in the range of 1.0 to 5.0 μm.
Aeraulic coupling for coupling an aeraulic sheath to an aeraulic box , for example a controlled mechanical ventilation box, comprising: - a modulation member configured to modulate the airflow rate of an air stream circulating through said aeraulic coupling, - a control housing connected electrically to the modulation member and configured to control said modulation member, - an electrical connector connected electrically to the control housing and configured to be connected to an electrical power supply connector of an aeraulic box, - a system for fixing said aeraulic coupling to an aeraulic box, the aeraulic coupling being characterized in that the fixing system is configured to allow said aeraulic coupling to be fixed to the aeraulic box simultaneously with the electrical connection of the electrical connector with an electrical power supply connector. - a modulation member configured to modulate the airflow rate of an air stream circulating through said aeraulic coupling, - a control housing connected electrically to the modulation member and configured to control said modulation member, - an electrical connector connected electrically to the control housing and configured to be connected to an electrical power supply connector of an aeraulic box, - a system for fixing said aeraulic coupling to an aeraulic box, the aeraulic coupling being characterized in that the fixing system is configured to allow said aeraulic coupling to be fixed to the aeraulic box simultaneously with the electrical connection of the electrical connector with an electrical power supply connector.