mhurhangee/ep-ind-claims huggingface dataset:
A method for spectrum sharing between networks, used to implement spectrum allocation between a first network and a second network, comprising the following steps: measuring the strength of signal of the second network; calculating a network overlapping level indicator according to the strength of the signal of the second network, and obtaining network-coverage-topology-based information of the second network according to the network overlapping level indicator, the network overlapping level indicator indicating a level at which the first network overlaps with the second network; the first network exchanging the network-coverage-topology-based information of the second network with the second network, and obtaining network-coverage-topology-based information of the first network from the second network; said method being characterised in that it further comprises the step of calculating the spectrum shared between the first network and the second network based on number of small cells of the first network that belong to the different network overlapping level indicators, wherein the network-coverage-topology-based information of the first network comprises said number of small cells in the first network that belong to different network overlapping level indicators, according to a network overlapping level indicator of the first network, measuring the strength of signal of the second network; calculating a network overlapping level indicator according to the strength of the signal of the second network, and obtaining network-coverage-topology-based information of the second network according to the network overlapping level indicator, the network overlapping level indicator indicating a level at which the first network overlaps with the second network; the first network exchanging the network-coverage-topology-based information of the second network with the second network, and obtaining network-coverage-topology-based information of the first network from the second network; said method being characterised in that it further comprises the step of calculating the spectrum shared between the first network and the second network based on number of small cells of the first network that belong to the different network overlapping level indicators, wherein the network-coverage-topology-based information of the first network comprises said number of small cells in the first network that belong to different network overlapping level indicators, according to a network overlapping level indicator of the first network,
A process to synthesize compounds of following formula: wherein: - R 1 and R 2 independently of each other are protective groups of the amine functions; - R 3 is a hydrogen or a protective group of the amine functions and R 4 is a hydrogen or a protective group of the hydroxyl functions, or R 3 and R 4 together form a group selected from among -C(CH 3) 2 -, -CH(CH 3)-, -C((CH 2) 4)-, -C((CH 2) 5)-, -CH(C 6 H 5)-, -CH(( p -OCH 3,)C 6 H 4)-, -CH(( m,p -OCH 3)C 6 H 3)- and -C -; - R 5 is a hydrogen, an alkyl radical, an aryl radical or an heteroaryl radical; from 5-hydroxyectoine. - R 1 and R 2 independently of each other are protective groups of the amine functions; - R 3 is a hydrogen or a protective group of the amine functions and R 4 is a hydrogen or a protective group of the hydroxyl functions, or R 3 and R 4 together form a group selected from among -C(CH 3) 2 -, -CH(CH 3)-, -C((CH 2) 4)-, -C((CH 2) 5)-, -CH(C 6 H 5)-, -CH(( p -OCH 3,)C 6 H 4)-, -CH(( m,p -OCH 3)C 6 H 3)- and -C -; - R 5 is a hydrogen, an alkyl radical, an aryl radical or an heteroaryl radical;
A food processing machine comprising: a cutter configured to cut portions from a food product (60,70,72,74); a transport system arranged to carry a food product to the cutter; and a sensing apparatus (43,45) configured to sense a profile of part of the food product as the food product is carried through a sensing region of the machine by the transport system, wherein the transport system comprises: a first feeder system (24,26,32,34) which feeds the food product through the sensing region at a sensing feed rate; and a second feeder system (28,36) downstream of the sensing region which feeds the food product towards the cutter at a cutting feed rate, and the machine is arranged to control the sensing and cutting feed rates independently, characterised in that a food product is continuously constrained by the transport system as the food product travels through the sensing region and from the sensing region to the cutter, and the first and second feeder systems engage with both upper and lower surfaces of a food product to constrain it. a cutter configured to cut portions from a food product (60,70,72,74); a transport system arranged to carry a food product to the cutter; and a sensing apparatus (43,45) configured to sense a profile of part of the food product as the food product is carried through a sensing region of the machine by the transport system, wherein the transport system comprises: a first feeder system (24,26,32,34) which feeds the food product through the sensing region at a sensing feed rate; and a second feeder system (28,36) downstream of the sensing region which feeds the food product towards the cutter at a cutting feed rate, and the machine is arranged to control the sensing and cutting feed rates independently, characterised in that a food product is continuously constrained by the transport system as the food product travels through the sensing region and from the sensing region to the cutter, and the first and second feeder systems engage with both upper and lower surfaces of a food product to constrain it. a first feeder system (24,26,32,34) which feeds the food product through the sensing region at a sensing feed rate; and a second feeder system (28,36) downstream of the sensing region which feeds the food product towards the cutter at a cutting feed rate, and the machine is arranged to control the sensing and cutting feed rates independently, characterised in that a food product is continuously constrained by the transport system as the food product travels through the sensing region and from the sensing region to the cutter, and the first and second feeder systems engage with both upper and lower surfaces of a food product to constrain it.
A tissue fastening tool formed of a wire wounded into a coil shape which fastens a first biological tissue and a second biological tissue, comprising: a first tissue fixing section which is hooked onto the first biological tissue; a second tissue fixing section which is hooked onto the second biological tissue; and a connecting portion between the first tissue fixing section and the second tissue fixing section, wherein the connecting portion, the first tissue fixing section and the second tissue fixing section are each provided with a coil shape having the same winding diameter, characterized in that the first tissue fixing section and the second tissue fixing section are formed with a wire having a circular shaped cross section, and the connecting portion is formed with a wire having a polygonal shaped cross section. a first tissue fixing section which is hooked onto the first biological tissue; a second tissue fixing section which is hooked onto the second biological tissue; and a connecting portion between the first tissue fixing section and the second tissue fixing section, wherein the connecting portion, the first tissue fixing section and the second tissue fixing section are each provided with a coil shape having the same winding diameter, characterized in that the first tissue fixing section and the second tissue fixing section are formed with a wire having a circular shaped cross section, and the connecting portion is formed with a wire having a polygonal shaped cross section.
A fixture security system comprising a fixture lock unit (14,114,214,314) operable to block access to a receptacle in a fixture, the fixture lock unit including a lock and an operative movable lock actuator coupled to the lock, and a child-resistant access-control unit comprising mask means concealing the movable lock actuator, wherein the child-resistant access-control unit comprises a non-operative decoy lock-actuator button (32,132,232,332) mounted in a visible location on the mask means, characterized in that the mask means covers a portion of the fixture lock unit to conceal the operative movable lock actuator from an unknowing child that is observing the fixture, a force-transmission section of the mask means being arranged to lie in confronting relation to a free outer end of the operative movable lock actuator stored and concealed in an interior region of the mask means, said force-transmission section being made of a deformable elastic material to cause the force-transmission section to deform elastically in response to application of an external force to an exterior surface of the force-transmission section to move the force-transmission section relative to the non-operative decoy lock-actuator button, mounted in a visible location on the mask means, to engage and move the operative movable lock actuator of the fixture lock unit relative to the mask means from an unactuated position allowing the lock to remain locked to an actuated position actuating the lock and unlocking the fixture lock unit.
A method of processing a packet at a node to enable verification that the packet has transited a particular path comprising a plurality of network nodes (130, 132, 134), the method comprising: obtaining information about the packet, the information including in-band metadata that includes one or more fields for at least a first value and a second value, the first value being based on a number and/or a timestamp generated at an initial network node of the plurality of network nodes of the path in the network, and the second value being cumulatively updated as the packet passes through the plurality of network nodes of the path in the network; reading the first value and the second value from the in-band metadata of the packet; generating, using a cryptographic key that is unique to the node, an encryption result based on the first value; generating an updated second value based on the second value read from the packet and the encryption result; writing the updated second value to the in-band metadata of the packet; and forwarding the packet in the network. obtaining information about the packet, the information including in-band metadata that includes one or more fields for at least a first value and a second value, the first value being based on a number and/or a timestamp generated at an initial network node of the plurality of network nodes of the path in the network, and the second value being cumulatively updated as the packet passes through the plurality of network nodes of the path in the network; reading the first value and the second value from the in-band metadata of the packet; generating, using a cryptographic key that is unique to the node, an encryption result based on the first value; generating an updated second value based on the second value read from the packet and the encryption result; writing the updated second value to the in-band metadata of the packet; and forwarding the packet in the network.
Method for processing an analogue channel signal from a transmission channel, the analogue channel signal conveying symbol frames, and the transmission channel being considered as being linear and time-invariant for the entire duration of at least one frame, the method comprising an analogue/digital conversion of the analogue channel signal so as to obtain a digital channel signal, a digital channel estimation processing and a decoding of symbols carried out on the digital channel signal, characterised in that the digital channel estimation processing comprises, for said at least one frame, an elaboration of at least three transfer functions (H i) of said channel respectively associated with at least three reference symbols (SYMR i) of said at least one frame, and an averaging processing of said transfer functions obtained so as to obtain an average transfer function, and the decoding of the symbols of said at least one frame according to said reference symbols is carried out using this average transfer function.
A system comprising: a metered dose inhaler device for pulmonary delivering to a subject at least one pre-determined vaporized amount of at least one pharmacologically active agent being in an organic material by controllably heating said organic material so as to vaporize said at least one pre-determined vaporized amount of said agent; a controller in communication with said inhaler device, said controller configured to control said pre-determined vaporized amount based on data indicative of at least one pharmacodynamic effect induced by the agent in the subject; characterized in that the system comprises at least one sensor configured for monitoring said at least one pharmacodynamic effect and/or a user interface device configured for interacting with said subject, wherein such data is obtained via said sensor and/or via said user interface device a metered dose inhaler device for pulmonary delivering to a subject at least one pre-determined vaporized amount of at least one pharmacologically active agent being in an organic material by controllably heating said organic material so as to vaporize said at least one pre-determined vaporized amount of said agent; a controller in communication with said inhaler device, said controller configured to control said pre-determined vaporized amount based on data indicative of at least one pharmacodynamic effect induced by the agent in the subject; characterized in that the system comprises at least one sensor configured for monitoring said at least one pharmacodynamic effect and/or a user interface device configured for interacting with said subject, wherein such data is obtained via said sensor and/or via said user interface device
A scanning apparatus for scanning articles in storage sections of a display case having at least one or more layers, the apparatus comprising: a scanner that has at least one antenna for scanning articles and is disposed to face the storage sections of the display case; a driving unit that is connected to the scanner for moving the scanner; and a control unit that controls movement of the scanner through the driving unit and collects information data about the articles from scan information received from the scanner, wherein the driving unit comprises at least one among a horizontal driving unit configured to move the scanner in the horizontal direction of the display case and a vertical driving unit configured to move the scanner in the vertical direction of the display case, characterized in that the scanner is equipped with a plurality of arm antennas (1034-1, 1034-2, 1034-3, and 1034-4) that protrude toward the inside of the storage sections and are arranged at a predetermined distance from each other, corresponding to the positions of the layers of the storage sections in the display case, and wherein each of the arm antennas (1034-1, 1034-2, 1034-3, and 1034-4) has an arm joint configured to connect the each of the arm antenna (1034-1, 1034-2, 1034-3, and 1034-4) to each of fixing brackets fixed to the scanner and to pivot and return each of the arm antennas (1034-1, 1034-2, 1034-3, and 1034-4) in vertical or horizontal direction. a scanner that has at least one antenna for scanning articles and is disposed to face the storage sections of the display case; a driving unit that is connected to the scanner for moving the scanner; and a control unit that controls movement of the scanner through the driving unit and collects information data about the articles from scan information received from the scanner,
Operating unit of a vehicle, the operating unit comprising: a capacitive touch panel for receiving a user input; a capacitive sensor unit (102, 201-204); and a first control unit; wherein the capacitive sensor unit (102, 201-204) is designed for detecting an approach of a user to the capacitive touch panel; wherein the capacitive touch panel is designed to detect a touch of the capacitive touch panel by the user or the approach of the user to the capacitive touch panel; and wherein the first control unit is designed to activate the capacitive touch panel if the capacitive sensor unit (102, 201-204) detects the approach of the user to the capacitive touch panel, characterized in that the operating unit has a second control unit for controlling the capacitive touch panel; wherein the first control unit is designed to send an activation signal to the second control unit in order to activate the capacitive touch panel and to activate the second control unit; and wherein the second control unit is designed to activate the capacitive touch panel after receiving the activation signal. a capacitive touch panel for receiving a user input; a capacitive sensor unit (102, 201-204); and a first control unit; wherein the capacitive sensor unit (102, 201-204) is designed for detecting an approach of a user to the capacitive touch panel; wherein the capacitive touch panel is designed to detect a touch of the capacitive touch panel by the user or the approach of the user to the capacitive touch panel; and wherein the first control unit is designed to activate the capacitive touch panel if the capacitive sensor unit (102, 201-204) detects the approach of the user to the capacitive touch panel, characterized in that the operating unit has a second control unit for controlling the capacitive touch panel; wherein the first control unit is designed to send an activation signal to the second control unit in order to activate the capacitive touch panel and to activate the second control unit; and wherein the second control unit is designed to activate the capacitive touch panel after receiving the activation signal.
A method of manufacturing a piezoelectric inkjet recording head including a piezoelectric element that is disposed above a substrate and has a multilayer structure including a first electrode disposed above the substrate, a piezoelectric layer disposed on the first electrode, and a second electrode disposed on the piezoelectric layer, the method comprising: forming the multilayer structure including the first electrode, the piezoelectric layer, and the second electrode above the substrate; forming a voltage application electrode extending outwardly from an end of the second electrode to cover a region, the region located above the piezoelectric layer and having no second electrode; applying a voltage between the first electrode and the second electrode; and removing the voltage application electrode after applying the voltage between the first electrode and the second electrode, the step of forming the multilayer structure comprising forming a second electrode layer for the second electrode above the piezoelectric layer; and the step of forming the voltage application electrode comprising patterning the second electrode layer into the second electrode and the voltage application electrode extending from the second electrode. forming the multilayer structure including the first electrode, the piezoelectric layer, and the second electrode above the substrate; forming a voltage application electrode extending outwardly from an end of the second electrode to cover a region, the region located above the piezoelectric layer and having no second electrode; applying a voltage between the first electrode and the second electrode; and removing the voltage application electrode after applying the voltage between the first electrode and the second electrode, the step of forming the multilayer structure comprising forming a second electrode layer for the second electrode above the piezoelectric layer; and the step of forming the voltage application electrode comprising patterning the second electrode layer into the second electrode and the voltage application electrode extending from the second electrode.
An organic electroluminescent transistor comprising: at least one dielectric layer; at least one control electrode; at least one hole electrode; at least one electron electrode; and an assembly comprising an emissive ambipolar channel, wherein: said dielectric layer comprises an electrically insulating material selected from the group consisting of an inorganic oxide or nitride, a molecular dielectric, a polymeric dielectric, and combination thereof, and said dielectric layer is arranged between said control electrode and said assembly; said emissive ambipolar channel comprises at least one layer of an n-type semiconductor material, at least one layer of a p-type semiconductor material, and at least one layer of an emissive material arranged between said layers of p-type and n-type semiconductor materials; said p-type semiconductor material comprises a benzothieno-benzothiophene compound of formula (P-I) wherein R a and R b are independently selected from the group consisting of H, a C 1-18 alkyl group, and a C 6-14 aryl group and characterized in that the thickness of said layer of p-type semiconductor material is between 5 and 50 nm. said dielectric layer comprises an electrically insulating material selected from the group consisting of an inorganic oxide or nitride, a molecular dielectric, a polymeric dielectric, and combination thereof, and said dielectric layer is arranged between said control electrode and said assembly; said emissive ambipolar channel comprises at least one layer of an n-type semiconductor material, at least one layer of a p-type semiconductor material, and at least one layer of an emissive material arranged between said layers of p-type and n-type semiconductor materials; said p-type semiconductor material comprises a benzothieno-benzothiophene compound of formula (P-I) wherein R a and R b are independently selected from the group consisting of H, a C 1-18 alkyl group, and a C 6-14 aryl group and characterized in that the thickness of said layer of p-type semiconductor material is between 5 and 50 nm.
Image archiving method comprising the steps consisting in: - partitioning a set of images P into n classes C i, i∈:[l, n], according to sequencing rules; - distributing the images between a plurality of storage containers, each container being dedicated to the storage of images of a given class (C i); - controlling a migration of at least one image from a container dedicated to a first class (C i) to a container dedicated to a second class (C i+l), a transformation function (Π i,i+l) being applied to the image during the migration. - partitioning a set of images P into n classes C i, i∈:[l, n], according to sequencing rules; - distributing the images between a plurality of storage containers, each container being dedicated to the storage of images of a given class (C i); - controlling a migration of at least one image from a container dedicated to a first class (C i) to a container dedicated to a second class (C i+l), a transformation function (Π i,i+l) being applied to the image during the migration.