mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented security method comprising: receiving, processing and logging network traffic data received from a plurality of users ; storing the network traffic data in a computer implemented storage resource , the network traffic data including network traffic data relating to at least one attacker; determining an attacker profile from the network traffic data; determining a honeypot or honeynet configuration based on the attacker profile; storing in the storage resource the determined attacker profile and associated determined configuration; and upon receipt of a request from a legitimate user of the plurality of users, providing the determined attacker profile and the associated configuration to the legitimate user, for use in a network associated with the legitimate user. receiving, processing and logging network traffic data received from a plurality of users ; storing the network traffic data in a computer implemented storage resource , the network traffic data including network traffic data relating to at least one attacker; determining an attacker profile from the network traffic data; determining a honeypot or honeynet configuration based on the attacker profile; storing in the storage resource the determined attacker profile and associated determined configuration; and upon receipt of a request from a legitimate user of the plurality of users, providing the determined attacker profile and the associated configuration to the legitimate user, for use in a network associated with the legitimate user.
Method for regulating a switching converter (SN) having at least one switching element in a quasi-resonant operation, wherein the at least one switching element is switched in a regulated state of the switching converter (SN) at a predetermined stable switching frequency, and wherein switch-on points in time of the at least one switching element are predetermined by a switching signal (PWM) that is generated owing to a sawtooth signal, which is influenced with a valley-identifying signal, reaching a switch-on threshold value, wherein owing to the valley-identifying signal (V) a respective switch-on point in time of the at least one switching element falls in a valley of an oscillating voltage that is prevailing at the switched-off switching element, characterised in that a prevailing period duration (T) of the switching signal (PWM) is determined , that the determined prevailing period duration (T) of the switching signal (PWM) is compared with a predetermined reference period duration (Tref) , that a control variable (SG) is derived from a comparison of the determined prevailing period duration (T) with the reference period duration (Tref) , and that in the case of a change in the load at the output of the switching converter (SN) by the control variable (SG) a gap between the sawtooth signal, which is influenced with the valley-identifying signal (V), and the switch-on threshold value is changed until with reference to the determined prevailing period duration (T) it is ascertained that the predetermined stable switching frequency is reached .
Pipetting device for an apparatus for processing a sample or reagent, comprising a coupling mechanism , wherein the coupling mechanism comprises at least a first coupling unit adapted to be coupled to a first pipetting tip and a second coupling unit adapted to be coupled to a second pipetting tip , and a tilt mechanism for moving the first coupling unit between an untilted position, in which the first coupling unit and the second coupling unit are arranged parallel to one another, and a tilted position, in which the first coupling unit is tilted relative to the second coupling unit , further comprising a tilt mechanism trigger adapted to trigger the tilt mechanism , wherein the tilt mechanism trigger is adapted to be activated by means of engagement with an activation device of the apparatus for processing a sample, characterized in that the tilt mechanism trigger is adapted to be activated by means of a movement of the pipetting device relative to the activation device in a first direction .
A method of filtering diesel fuel for supply to an internal combustion engine, the method comprising: passing the diesel fuel through an inline fuel filter provided between a fuel pump and the internal combustion engine at a pressure of between 3 and 3.5 bar to trap precipitates suspended in the diesel fuel; and using a catalyst having a catalytic surface that targets C-O-C bonds below 90°C to decompose sterol glycosides trapped by a filter element of the inline fuel filter , wherein the catalyst comprises one of the group comprising: silico-alumino-phosphate (SAPO), Zeolite Beta, Zeolite Socony Mobil-5 (ZSM5), and Zeolite Y, wherein the fuel filter comprises means for heating the catalyst to a temperature of 80-90°C. passing the diesel fuel through an inline fuel filter provided between a fuel pump and the internal combustion engine at a pressure of between 3 and 3.5 bar to trap precipitates suspended in the diesel fuel; and using a catalyst having a catalytic surface that targets C-O-C bonds below 90°C to decompose sterol glycosides trapped by a filter element of the inline fuel filter , wherein the catalyst comprises one of the group comprising: silico-alumino-phosphate (SAPO), Zeolite Beta, Zeolite Socony Mobil-5 (ZSM5), and Zeolite Y, wherein the fuel filter comprises means for heating the catalyst to a temperature of 80-90°C.
An injector configured to inject a solution containing biomolecules into an injection target and configured such that no injection is performed through a predetermined structure in a state, where the predetermined structure is inserted into the injection target, from an injector main body , the injector comprising: a storage unit in which a solution containing biomolecules is stored; and a nozzle part having an ejection port through which the pressurized solution containing biomolecules is able to flow and can be ejected into the injection target, wherein the injector is configured such that when a relationship between displacement x at a tip of the solution containing biomolecules in the injection target and velocity u(x) at the tip of the solution is fitted using a least squares method by a fitting function represented by Formula below, a damping coefficient k is at least 1.59: u x = u 0 exp − kx + u e in Formula , u 0 represents a velocity coefficient (m/s), k represents a damping coefficient (1/mm), and u e represents an asymptotic velocity (m/s). a storage unit in which a solution containing biomolecules is stored; and a nozzle part having an ejection port through which the pressurized solution containing biomolecules is able to flow and can be ejected into the injection target, wherein the injector is configured such that when a relationship between displacement x at a tip of the solution containing biomolecules in the injection target and velocity u(x) at the tip of the solution is fitted using a least squares method by a fitting function represented by Formula below, a damping coefficient k is at least 1.59: u x = u 0 exp − kx + u e in Formula , u 0 represents a velocity coefficient (m/s), k represents a damping coefficient (1/mm), and u e represents an asymptotic velocity (m/s).
An AI training method, applied to an artificial intelligence, AI, training network, wherein the AI training network comprises a master server, a first server , a second server , and an optical cross-connect OXC connection , the first server comprises a first graphics processing unit , the second server comprises a second graphics processing unit, the first server and the second server are separately connected to the optical cross-connect OXC connection , and the method comprises: performing, by the first graphics processing unit , AI training calculation on a first dataset based on a first data flow diagram; and before the first graphics processing unit completes the AI training calculation on the first dataset, triggering, by the master server, the OXC to start to perform channel switching, wherein after the channel switching is completed, an optical channel between the first graphics processing unit and the second graphics processing unit is successfully established; after completing the calculation, sending, by the first graphics processing unit , a calculation result to the second graphics processing unit by using the established optical channel; and performing, by the second graphics processing unit , AI training calculation on the calculation result by using a second data flow diagram. performing, by the first graphics processing unit , AI training calculation on a first dataset based on a first data flow diagram; and before the first graphics processing unit completes the AI training calculation on the first dataset, triggering, by the master server, the OXC to start to perform channel switching, wherein after the channel switching is completed, an optical channel between the first graphics processing unit and the second graphics processing unit is successfully established; after completing the calculation, sending, by the first graphics processing unit , a calculation result to the second graphics processing unit by using the established optical channel; and performing, by the second graphics processing unit , AI training calculation on the calculation result by using a second data flow diagram.
A method at a Supplementary Data Provider within an emergency services network, the method comprising: receiving a message at the Supplementary Data Provider, the Supplementary Data Provider being a resource server or web server, the message including a Supplementary Data identity that uniquely identifies the Supplementary Data and incident data of an incident; responsive to receiving the message, creating a resource at the Supplementary Data Provider based on the incident data, the resource being associated with the Supplementary Data identity; receiving an access request from an Emergency Services Provider for Supplementary Data associated with the resource, wherein the Supplementary Data comprises data that are pertinent to the incident and having been generated by one or more Internet of Things, loT, devices, IoT sensors or other data sources; and responsive to receiving the access request, providing a response with the Supplementary Data, wherein the message further includes an access token from an authorization server and the access token provides a scope to limit data resources to the specific incident identified by the Supplementary Data identity. receiving a message at the Supplementary Data Provider, the Supplementary Data Provider being a resource server or web server, the message including a Supplementary Data identity that uniquely identifies the Supplementary Data and incident data of an incident; responsive to receiving the message, creating a resource at the Supplementary Data Provider based on the incident data, the resource being associated with the Supplementary Data identity; receiving an access request from an Emergency Services Provider for Supplementary Data associated with the resource, wherein the Supplementary Data comprises data that are pertinent to the incident and having been generated by one or more Internet of Things, loT, devices, IoT sensors or other data sources; and responsive to receiving the access request, providing a response with the Supplementary Data, wherein the message further includes an access token from an authorization server and the access token provides a scope to limit data resources to the specific incident identified by the Supplementary Data identity.
Sanitary insert unit having an insert housing which is insertable into the water outlet of a sanitary outlet fitting and in at least a part-region has a rectangular cross section, in such a manner that the longitudinal sides of the insert housing in comparison with the narrow sides that are oriented so as to be transverse to the longitudinal extent of the insert housing have a greater magnitude, and having a flow regulator which is provided in the insert housing of the insert unit and which has at least one water-perfused flow duct in which flow duct a throttle body which is disposed in an installation plane that is oriented so as to be transverse to the perfusion direction is provided, wherein at least one control gap which is disposed between an at least, in portions, profiled wall that delimits the flow duct and an adjacent external side of the throttle body is provided, and wherein the throttle body under the pressure of the perfusing medium is elastically deformable in such a manner that the available flow cross section of the control gap is constricted by the throttle body being moulded into the profiled feature of the at least, in portions, profiled wall, characterized in that the throttle body is annularly configured and is held in the insert unit in such a manner that the annular throttle body in the longitudinal extent thereof is subdivided into two first annular portions that are oriented in the longitudinal direction, and into two curved second annular portions that interconnect the first annular portions on both sides, and in that a control gap is provided between each of the first annular portions and an adjacent and at least, in portions, profiled wall.
Winding machine for dough , in particular for winding strips of dough, wherein the winding machine comprises: a base body , a control unit , a roller rotatably supported on the base body around a rotation axis (A), a motor for rotatably driving the roller , and a press-on assembly for pressing dough rolled on the roller against the roller , wherein, when using the winding machine , dough strips are windable helically onto the roller , wherein the roller is mounted on the base body manually removable and installable; and the press-on assembly is mounted on the base body adjustably towards the roller , in particular is mounted pivotably on the base body so that the press-on assembly is adjustable towards the roller for pressing rolled up dough against the roller , wherein the press-on assembly comprises at least one press-on roller (14a-d) rotatably mounted around a rotation axis (15a-d), and wherein the roller rotation axis (15a-d) is parallel or substantially parallel to the roller rotation axis (A), and/or wherein the lateral surfaces of the roller and of the at least one press-on roller (14a-d) are parallel to each other. a base body , a control unit , a roller rotatably supported on the base body around a rotation axis (A), a motor for rotatably driving the roller , and a press-on assembly for pressing dough rolled on the roller against the roller , wherein, when using the winding machine , dough strips are windable helically onto the roller , wherein the roller is mounted on the base body manually removable and installable; and the press-on assembly is mounted on the base body adjustably towards the roller , in particular is mounted pivotably on the base body so that the press-on assembly is adjustable towards the roller for pressing rolled up dough against the roller , wherein the press-on assembly comprises at least one press-on roller (14a-d) rotatably mounted around a rotation axis (15a-d), and wherein the roller rotation axis (15a-d) is parallel or substantially parallel to the roller rotation axis (A), and/or wherein the lateral surfaces of the roller and of the at least one press-on roller (14a-d) are parallel to each other.
Method for inputting safety-critical control commands in a railway system having the following steps in the specific order: A) inputting the control command into an operator station , B) forwarding the control command from the operator station to a system component to be activated, C) generating an at least partially encrypted system response in the system component , D) sending the system response from the system component to the operator station , E) transferring the encrypted system response from the operator station , which cannot detect the contents of the system response , directly to a mobile receiving device and F) decrypting the system response in the receiving device and confirming the control command on the receiving device and sending a confirmation for the control command to the system component , wherein - the receiving device is a smartphone, a mobile telephone, a tablet, a laptop, a smartwatch, a webcam in connection with a further computer or a radio receiver, - the operator station and the system component are stationary, - the receiving device cannot receive data directly from the system component , and - the transfer in step E) comprises indicating the encrypted system response on a monitor of the operator station and photographing the indicated, encrypted system response with the receiving device . A) inputting the control command into an operator station , B) forwarding the control command from the operator station to a system component to be activated, C) generating an at least partially encrypted system response in the system component , D) sending the system response from the system component to the operator station , E) transferring the encrypted system response from the operator station , which cannot detect the contents of the system response , directly to a mobile receiving device and F) decrypting the system response in the receiving device and confirming the control command on the receiving device and sending a confirmation for the control command to the system component , wherein - the receiving device is a smartphone, a mobile telephone, a tablet, a laptop, a smartwatch, a webcam in connection with a further computer or a radio receiver, - the operator station and the system component are stationary, - the receiving device cannot receive data directly from the system component , and - the transfer in step E) comprises indicating the encrypted system response on a monitor of the operator station and photographing the indicated, encrypted system response with the receiving device . - the receiving device is a smartphone, a mobile telephone, a tablet, a laptop, a smartwatch, a webcam in connection with a further computer or a radio receiver, - the operator station and the system component are stationary, - the receiving device cannot receive data directly from the system component , and - the transfer in step E) comprises indicating the encrypted system response on a monitor of the operator station and photographing the indicated, encrypted system response with the receiving device .
Magnetic resonance tomography system comprising a basic field magnet arrangement for generating a basic magnetic field (B0) and a plurality of spatially separated measurement stations (Mp, Ms), wherein the magnetic resonance tomography system is configured to use the intended basic magnetic field (B0) collectively for the measurement stations (Mp, Ms), wherein the plurality of measurement stations consists of a primary measurement station (Mp) arranged in the main field of the basic magnetic field and at least one secondary measurement station (Ms) to perform a measurement of raw data in the area of the stray field of the basic magnetic field (B0), characterised in that the resulting field vectors of the intended magnetic field profiles at the at least one secondary measuring station (Ms) are inclined by at least 30° to the field vector of the intended basic magnet main field profile at the position of the primary measurement station (Mp).
A surgical system for manipulating an anatomy, said system comprising: a manipulator having a base and a linkage; a tool coupled to said manipulator and movable relative to said base to interact with the anatomy; and a controller configured to generate a first virtual boundary associated with the anatomy and a second virtual boundary associated with the anatomy, wherein the first virtual boundary is spaced apart from the second virtual boundary, and to control movement of said tool in a first mode and a second mode, and wherein said controller activates said first virtual boundary in said first mode to constrain said tool in relation to said first virtual boundary and wherein said controller deactivates said first virtual boundary in said second mode to constrain said tool in relation to said second virtual boundary; characterized in that said first mode is a manual mode and said second mode is an autonomous mode. a manipulator having a base and a linkage; a tool coupled to said manipulator and movable relative to said base to interact with the anatomy; and a controller configured to generate a first virtual boundary associated with the anatomy and a second virtual boundary associated with the anatomy, wherein the first virtual boundary is spaced apart from the second virtual boundary, and to control movement of said tool in a first mode and a second mode, and wherein said controller activates said first virtual boundary in said first mode to constrain said tool in relation to said first virtual boundary and wherein said controller deactivates said first virtual boundary in said second mode to constrain said tool in relation to said second virtual boundary; characterized in that said first mode is a manual mode and said second mode is an autonomous mode.
A turbofan engine comprising: a bypass duct forming a bypass passage extending annularly around an axis , the bypass passage extending rearwardly from a fan and around an engine core ; an auxiliary duct branching radially outwardly from the bypass duct relative the axis , the auxiliary duct having a proximal end fluidly connecting the bypass duct and a distal end , the auxiliary duct defining an auxiliary passage between the proximal end and the distal end , the auxiliary passage fluidly connecting the bypass passage ; and a valve activatable to selectively open and close the auxiliary passage , characterised in that the engine further comprises: a structure protruding partially from the auxiliary duct into the auxiliary passage , the structure spaced apart from the proximal end , between the proximal end and the valve , the structure generating lesser pressure losses when flow in the auxiliary passage is directed towards the distal end than when the flow is directed towards the proximal end . a bypass duct forming a bypass passage extending annularly around an axis , the bypass passage extending rearwardly from a fan and around an engine core ; an auxiliary duct branching radially outwardly from the bypass duct relative the axis , the auxiliary duct having a proximal end fluidly connecting the bypass duct and a distal end , the auxiliary duct defining an auxiliary passage between the proximal end and the distal end , the auxiliary passage fluidly connecting the bypass passage ; and a valve activatable to selectively open and close the auxiliary passage , characterised in that the engine further comprises: a structure protruding partially from the auxiliary duct into the auxiliary passage , the structure spaced apart from the proximal end , between the proximal end and the valve , the structure generating lesser pressure losses when flow in the auxiliary passage is directed towards the distal end than when the flow is directed towards the proximal end .