mhurhangee/ep-ind-claims huggingface dataset:
A receiving unit receiving packets including a device arranged to produce, from received packets, a clock signal, the device including: - a clock signal generator arranged to generate a clock signal having a controllable frequency, - a delay determining unit arranged to determine the delays of received packets in relation to the clock signal, the delays of most recently received packets forming a delay distribution ranging from a current minimum delay value to larger delay values, and - an evaluating and control signal producing unit arranged to evaluate the delays of the delay distribution and to produce a control signal for controlling the frequency of the clock signal based on the delays, the evaluating and control signal producing unit arranged to determine a characteristic delay value, which is characteristic of the delay distribution and to produce the control signal from the characteristic delay value, wherein the characteristic delay value is determined as an average of the delays of delay distribution of the most recently received packets. - a clock signal generator arranged to generate a clock signal having a controllable frequency, - a delay determining unit arranged to determine the delays of received packets in relation to the clock signal, the delays of most recently received packets forming a delay distribution ranging from a current minimum delay value to larger delay values, and - an evaluating and control signal producing unit arranged to evaluate the delays of the delay distribution and to produce a control signal for controlling the frequency of the clock signal based on the delays, the evaluating and control signal producing unit arranged to determine a characteristic delay value, which is characteristic of the delay distribution and to produce the control signal from the characteristic delay value, wherein the characteristic delay value is determined as an average of the delays of delay distribution of the most recently received packets.
A surgical instrument, comprising: a firing member; a motor configured to drive said firing member; a controller for controlling said motor, wherein said controller is configured to operate said surgical instrument in a plurality of operating states (5402, 5412, 5414), and wherein said plurality of operating states comprises a firing state for driving said firing member and a warned firing state for driving said firing member, wherein the firing member is configured to be advanced in the warned firing state, wherein the plurality of operating states further comprises a modified operating state, wherein the firing member is configured to be retracted in the modified operating state; means for operating said surgical instrument in said warned firing state; an input key, wherein the input key and the controller are in signal communication, wherein the controller is configured to operate said surgical instrument in said warned firing state or said modified operating state when the input key is activated; a sensor configured to detect a force on the firing member, wherein the sensor and the controller are in signal communication, and wherein the controller pauses the firing state for driving said firing member when the sensor detects a force on the firing member that exceeds a threshold force. a firing member; a motor configured to drive said firing member; a controller for controlling said motor, wherein said controller is configured to operate said surgical instrument in a plurality of operating states (5402, 5412, 5414), and wherein said plurality of operating states comprises a firing state for driving said firing member and a warned firing state for driving said firing member, wherein the firing member is configured to be advanced in the warned firing state, wherein the plurality of operating states further comprises a modified operating state, wherein the firing member is configured to be retracted in the modified operating state; means for operating said surgical instrument in said warned firing state; an input key, wherein the input key and the controller are in signal communication, wherein the controller is configured to operate said surgical instrument in said warned firing state or said modified operating state when the input key is activated; a sensor configured to detect a force on the firing member, wherein the sensor and the controller are in signal communication, and wherein the controller pauses the firing state for driving said firing member when the sensor detects a force on the firing member that exceeds a threshold force.
A method of evaluating error in a vision correction procedure, the method comprising: receiving a treatment table containing laser device instructions; receiving a set of surgery parameters associated with the vision correction procedure; determining an original treatment based on original values for the set of surgery parameters; generating a plurality of random modified values for at least one parameter of the set of surgery parameters; simulating a treatment based on the plurality of random modified values and the treatment table; and evaluating error in the vision correction procedure based on a comparison between the original treatment and the simulated treatment, wherein the plurality of random modified values are generated for a parameter associated with a member selected from the group consisting of a permanent error, an alignment error, a calibration error, a treatment error, and a noise fluctuation. receiving a treatment table containing laser device instructions; receiving a set of surgery parameters associated with the vision correction procedure; determining an original treatment based on original values for the set of surgery parameters; generating a plurality of random modified values for at least one parameter of the set of surgery parameters; simulating a treatment based on the plurality of random modified values and the treatment table; and evaluating error in the vision correction procedure based on a comparison between the original treatment and the simulated treatment, wherein the plurality of random modified values are generated for a parameter associated with a member selected from the group consisting of a permanent error, an alignment error, a calibration error, a treatment error, and a noise fluctuation.
Plastic film for wrapping, obtained by cast co-extrusion in three layers, characterized in that an inner layer consists of a blend of propylene-based elastomer, containing ethylene, and metallocene polyethylene, a central layer and an outer layer consist of metallocene polyethylene respectively with different melt flow indexes, that of metallocene polyethylene of the central layer being the lower one.
A fermented cereal product comprising: - a fermented prebiotic suspension of cereals, with residual quantities of free microorganisms; - encapsulated prebiotics; - microencapsulated microorganisms; and - other food ingredients selected from a group comprising: antioxidants; fatty acids; vitamins; minerals; sweeteners, flavours and/or fruit pulp and enzymes. - a fermented prebiotic suspension of cereals, with residual quantities of free microorganisms; - encapsulated prebiotics; - microencapsulated microorganisms; and - other food ingredients selected from a group comprising: antioxidants; fatty acids; vitamins; minerals; sweeteners, flavours and/or fruit pulp and enzymes.
A user access method, comprising: receiving an IPv6 access request comprising user information and path information; and binding the user information and the path information together and saving the bound information; wherein the path information comprises information about more than one intermediate device; the user information is added to the access request by a terminal device, the information about the more than one intermediate device is added to the IPv6 access request by the intermediate devices; characterized in that the more than one intermediate device comprises a Layer 2 intermediate device and the method comprises: adding device information to a hop-by-hop extension header of the IPv6 access request, when an interface which is of the Layer 2 intermediate device and on which a hop snooping function is enabled receives a data packet and it is determined, according to the data packet having the hop-by-hop extension header, that the data packet is the IPv6 access request. receiving an IPv6 access request comprising user information and path information; and binding the user information and the path information together and saving the bound information; wherein the path information comprises information about more than one intermediate device; the user information is added to the access request by a terminal device, the information about the more than one intermediate device is added to the IPv6 access request by the intermediate devices; characterized in that the more than one intermediate device comprises a Layer 2 intermediate device and the method comprises: adding device information to a hop-by-hop extension header of the IPv6 access request, when an interface which is of the Layer 2 intermediate device and on which a hop snooping function is enabled receives a data packet and it is determined, according to the data packet having the hop-by-hop extension header, that the data packet is the IPv6 access request. adding device information to a hop-by-hop extension header of the IPv6 access request, when an interface which is of the Layer 2 intermediate device and on which a hop snooping function is enabled receives a data packet and it is determined, according to the data packet having the hop-by-hop extension header, that the data packet is the IPv6 access request.
An antenna assembly comprising: a plurality of active antenna elements disposed in a first linear array along a reference line and equidistant from each adjacent antenna element by a first linear distance; a plurality of passive antenna elements disposed in a second linear array extending parallel to the reference line such that each passive antenna element is a second linear distance away from a corresponding one of the active antenna elements; and a ground plane at which the active and passive antenna elements are mounted such that the active and passive antenna elements each extend substantially perpendicularly away from the ground plane and parallel to each other, wherein the antenna assembly includes a phase control module configured to apply selected phase fronts to selected ones of the active antenna elements to generate constructive and destructive interference patterns to define a directive beam in a desired direction in a range between about 0 and 180 degrees relative to the reference line. a plurality of active antenna elements disposed in a first linear array along a reference line and equidistant from each adjacent antenna element by a first linear distance; a plurality of passive antenna elements disposed in a second linear array extending parallel to the reference line such that each passive antenna element is a second linear distance away from a corresponding one of the active antenna elements; and a ground plane at which the active and passive antenna elements are mounted such that the active and passive antenna elements each extend substantially perpendicularly away from the ground plane and parallel to each other, wherein the antenna assembly includes a phase control module configured to apply selected phase fronts to selected ones of the active antenna elements to generate constructive and destructive interference patterns to define a directive beam in a desired direction in a range between about 0 and 180 degrees relative to the reference line.
Process for the production of de-salted biomass hydrolysate comprising the steps a) Providing a biomass; b) Acidic pretreatment of the biomass; c) Hydrolysis of the biomass to obtain a biomass hydrolysate; d) Solid-liquid separation of the biomass hydrolysate to obtain a solid phase and a liquid phase; e) Deionization of the liquid phase by electrodialysis using at least one bipolar membrane; f) Separation of an acid and an alkaline fraction from the deionized liquid phase; g) Addition of at least part of the separated acid fraction to step b) wherein steps a) to g) are repeated at least once. a) Providing a biomass; b) Acidic pretreatment of the biomass; c) Hydrolysis of the biomass to obtain a biomass hydrolysate; d) Solid-liquid separation of the biomass hydrolysate to obtain a solid phase and a liquid phase; e) Deionization of the liquid phase by electrodialysis using at least one bipolar membrane; f) Separation of an acid and an alkaline fraction from the deionized liquid phase; g) Addition of at least part of the separated acid fraction to step b)
A method for a robot middleware system, comprising: sending one or more secure encrypted type-enforced context message that includes an action message to communicate between a first robot middleware node and a second robot middleware node; wherein the first robot middleware node includes a server application and the second robot middleware node includes a client application; wherein the action message is a protected message that comprises a security context specifying a pre-requisite action performed by the first middleware node and/or the second middleware node to apply a message protection action before the one or more secure encrypted context message is exchanged between the first robot middleware node and the second robot middleware node; wherein the message protection action includes verifying whether a pre-action contract matches an action to be performed by the first robot middleware node and the second robot middleware node, wherein the pre-action contract specifies actions to be taken by the first robot middleware node and the second robot middleware. sending one or more secure encrypted type-enforced context message that includes an action message to communicate between a first robot middleware node and a second robot middleware node; wherein the first robot middleware node includes a server application and the second robot middleware node includes a client application; wherein the action message is a protected message that comprises a security context specifying a pre-requisite action performed by the first middleware node and/or the second middleware node to apply a message protection action before the one or more secure encrypted context message is exchanged between the first robot middleware node and the second robot middleware node; wherein the message protection action includes verifying whether a pre-action contract matches an action to be performed by the first robot middleware node and the second robot middleware node, wherein the pre-action contract specifies actions to be taken by the first robot middleware node and the second robot middleware.
A bio-nanoparticle comprising a hepadnaviral envelope HBsAg-S fusion protein comprising one or more antigenic epitope repeat regions, wherein said antigenic epitope repeat regions are selected from the group consisting of antigenic epitopes expressed in the Loop 1 and Loop 2 regions of HBsAg-S domain.
Method for checking the authorization to open a receiving compartment of an unmanned vehicle, the method comprising: - obtaining a request to open the receiving compartment of the unmanned vehicle and first proof of authorization information; - capturing a position of the unmanned vehicle and at least one environmental parameter dependent on the position of the unmanned vehicle, wherein the environmental parameter dependent on the position of the unmanned vehicle is a wireless communication signal; - checking the authorization of the request to open the receiving compartment of the unmanned vehicle in dependence on the obtained first proof of authorization information, the captured position of the unmanned vehicle and the captured environmental parameter, wherein the checking the authorization of the request to open the receiving compartment comprises the checking whether the captured environmental parameter matches a predetermined environmental parameter, wherein the checking whether the captured environmental parameter matches a predetermined environmental parameter only reveals a match if the identity and/or origin of the captured wireless communication signal corresponds to a predetermined identity and/or origin; and - opening and/or causing of opening of the receiving compartment of the unmanned vehicle only if the checking reveals that the request to open the receiving compartment of the unmanned vehicle is authorized. - obtaining a request to open the receiving compartment of the unmanned vehicle and first proof of authorization information; - capturing a position of the unmanned vehicle and at least one environmental parameter dependent on the position of the unmanned vehicle, wherein the environmental parameter dependent on the position of the unmanned vehicle is a wireless communication signal; - checking the authorization of the request to open the receiving compartment of the unmanned vehicle in dependence on the obtained first proof of authorization information, the captured position of the unmanned vehicle and the captured environmental parameter, wherein the checking the authorization of the request to open the receiving compartment comprises the checking whether the captured environmental parameter matches a predetermined environmental parameter, wherein the checking whether the captured environmental parameter matches a predetermined environmental parameter only reveals a match if the identity and/or origin of the captured wireless communication signal corresponds to a predetermined identity and/or origin; and - opening and/or causing of opening of the receiving compartment of the unmanned vehicle only if the checking reveals that the request to open the receiving compartment of the unmanned vehicle is authorized.
A fiber cable terminal comprising: a sealed one-piece of a cable assembly, a cable fixing portion, and a thermal shrinkable tube, the cable assembly and the fixing portion being fixed together with the thermal shrinkable tube, the sealed one-piece being configured to receive an optical fiber; the cable assembly including: an inner sheath through which the fiber can pass; and a protection layer provided outside of the inner sheath; the cable fixing portion including: an insertion portion inserted between the protection layer and the inner sheath; and a fixing portion (2, 3) connected with the insertion portion and positioned outside of the protection layer; wherein the thermal shrinkable tube wraps a part of the fixing portion and a part of the protection layer, and fixes the cable fixing portion and the cable assembly together to form the sealed one-piece. a sealed one-piece of a cable assembly, a cable fixing portion, and a thermal shrinkable tube, the cable assembly and the fixing portion being fixed together with the thermal shrinkable tube, the sealed one-piece being configured to receive an optical fiber; the cable assembly including: an inner sheath through which the fiber can pass; and a protection layer provided outside of the inner sheath; an inner sheath through which the fiber can pass; and a protection layer provided outside of the inner sheath; the cable fixing portion including: an insertion portion inserted between the protection layer and the inner sheath; and a fixing portion (2, 3) connected with the insertion portion and positioned outside of the protection layer; an insertion portion inserted between the protection layer and the inner sheath; and a fixing portion (2, 3) connected with the insertion portion and positioned outside of the protection layer; wherein the thermal shrinkable tube wraps a part of the fixing portion and a part of the protection layer, and fixes the cable fixing portion and the cable assembly together to form the sealed one-piece.
A method based on a communication- and data network for automatic time synchronisation of field devices, namely fill-level measuring devices and pressure measuring devices as well as field-device control units, with the method comprising the steps of: determining a current time value by at least one of the field device or the field-device control unit; providing a desired value in a central server; comparing the current time value with the desired value; characterized in setting the current time value to the desired value when the desired value differs from the current time value by more than a predetermined threshold value, and taking over data from at least one of the field device or the field-device control unit by the server into a database when the desired value differs from the current time value at most by the predetermined threshold value. determining a current time value by at least one of the field device or the field-device control unit; providing a desired value in a central server; comparing the current time value with the desired value; characterized in setting the current time value to the desired value when the desired value differs from the current time value by more than a predetermined threshold value, and taking over data from at least one of the field device or the field-device control unit by the server into a database when the desired value differs from the current time value at most by the predetermined threshold value.
A method for wireless magnetic communication consisting in the processing of information encrypted by the transmitter using a magnetic field and decrypted by the receiver comprising proximity magnetic sensors is characterised in that the transmitter is equipped with a magnetic system with a planarly shaped configuration of magnetic elements, and then the transmitter is placed against the receiver which is coupled to a first microprocessor controller, and then using the magnetic sensors of the receiver the configuration of the magnetic field generated by the magnetic elements of the transmitter is recreated, and next, using the first microprocessor controller, one compares such configuration with the pattern implemented therein, and then, in accordance with the software implemented in the first microprocessor controller further actions corresponding with that pattern are launched.