mhurhangee/ep-ind-claims huggingface dataset:
A method for providing an information centric network with a software defined network, SDN, based on an information centric networking protocol on top of a physical network based on the internet protocol, comprising forwarding elements (S1, S2, S3) in the physical network and a controller in the software defined network for controlling the forwarding elements (S1, S2, S3), wherein a publicly routable network address per domain for outside data object requests of named data objects is announced via an information centric network domain name service, and when a first packet of an object request is received by an ingress element of the information centric network, the first packet is forwarded to the controller, wherein the controller determines an object source for the requested named data object, encodes a message id corresponding to the object source of the request and/or the requested named data object into a header of the packet by ip-address-rewriting wherein the new destination IP address is the IP address of the object source from which the object should be served and the new source IP address is the message ID and that a forwarding path is established by the controller based on matching the message ID to forward the packet and further packets to the determined object source, wherein the forwarding path to the determined object source is established by installing forwarding rules on the forwarding elements (S1, S2, S3) for forwarding further packets of the object request according to the determined object source, wherein the forwarding elements (S1, S2, S3) then forward by rewriting headers of the further packets by one of the forwarding elements (S1, S2, S3), the further packets of the object request according to the installed forwarding rules.
A computer-implemented method performed in a vehicle control unit (130, 140) for controlling motion of a heavy-duty vehicle, the method comprising obtaining a vehicle motion request, wherein the vehicle motion request is indicative of a target curvature (c req) and a target acceleration (a req), determining a motion support device, MSD, control allocation (T i / λ i / ω i / δ i) based on the vehicle motion request, wherein the method comprises determining a dynamic longitudinal wheel slip limit (λ lim / ω lim) based on the vehicle motion request and separately from the MSD control allocation, where the dynamic longitudinal wheel slip limit increases with a decreasing target curvature, and where the dynamic longitudinal wheel slip limit (λ lim / ω lim) is determined by minimizing local Hamiltonian functions at one or more wheels, and controlling the motion of the heavy-duty vehicle based on the MSD control allocation constrained by the dynamic longitudinal wheel slip limit. obtaining a vehicle motion request, wherein the vehicle motion request is indicative of a target curvature (c req) and a target acceleration (a req), determining a motion support device, MSD, control allocation (T i / λ i / ω i / δ i) based on the vehicle motion request, wherein the method comprises determining a dynamic longitudinal wheel slip limit (λ lim / ω lim) based on the vehicle motion request and separately from the MSD control allocation, where the dynamic longitudinal wheel slip limit increases with a decreasing target curvature, and where the dynamic longitudinal wheel slip limit (λ lim / ω lim) is determined by minimizing local Hamiltonian functions at one or more wheels, and controlling the motion of the heavy-duty vehicle based on the MSD control allocation constrained by the dynamic longitudinal wheel slip limit.
A roll for continuous casting comprising: a cylindrical roll rotatably mounted on a fixed axle; said axle comprising a coolant inlet system (12, 23, 24, 26, and 34) and a coolant outlet system (12, 23, 28, 30, and 36); a cooling chamber for receiving a flow of coolant, said coolant chamber defined by the space between the interior of said cylindrical roll and said axle; and at least one spiral formed onto said axle that creates a helical flow path from said coolant inlet system (12, 23, 24, 26, and 34) to said coolant outlet system (12, 23, 28, 30, and 36). a cylindrical roll rotatably mounted on a fixed axle; said axle comprising a coolant inlet system (12, 23, 24, 26, and 34) and a coolant outlet system (12, 23, 28, 30, and 36); a cooling chamber for receiving a flow of coolant, said coolant chamber defined by the space between the interior of said cylindrical roll and said axle; and at least one spiral formed onto said axle that creates a helical flow path from said coolant inlet system (12, 23, 24, 26, and 34) to said coolant outlet system (12, 23, 28, 30, and 36).
A telephony service for caller and called parties in different telecommunication networks, whereby the telephony service is a cloud service in the Internet and allows the use of a fixed telephone or a mobile telephone, the telephony service is configured to control and assist calls through the telephony service between a user device party (3, 4) and one or more devices of pre-defined other parties (7, 8, 9), characterize d by the telephony service activating an alternative function at an instant or intended call to one of the parties (3, 4, 7, 8, 9) for secure accessibility at outgoing and incoming calls from and to the telephony service, when the called party does not answer, said alternative function involving a forwarding function and a voice function, which forwarding function relocates a first outgoing call leg attempt to the user device party (3, 4) back as a second call leg attempt if the user does not answer the first outgoing call leg attempt after a certain time period, whereby the voice function is automatically activated, the voice function being one of a special harmonic ring tone, a pre-recorded announcement, a melody for the user device, a pre-recorded/dynamic Text-To-Speech, TTS, announcement to be played by the telephony service in order to pay special attention for an incoming auto-answer call and the second outgoing voice call attemptis automatically answered with the loudspeaker on, whereby said alternative function is administered by means of a connected database, which defines the situations for activating said alternative function. the telephony service activating an alternative function at an instant or intended call to one of the parties (3, 4, 7, 8, 9) for secure accessibility at outgoing and incoming calls from and to the telephony service, when the called party does not answer, said alternative function involving a forwarding function and a voice function, which forwarding function relocates a first outgoing call leg attempt to the user device party (3, 4) back as a second call leg attempt if the user does not answer the first outgoing call leg attempt after a certain time period, whereby the voice function is automatically activated, the voice function being one of a special harmonic ring tone, a pre-recorded announcement, a melody for the user device, a pre-recorded/dynamic Text-To-Speech, TTS, announcement to be played by the telephony service in order to pay special attention for an incoming auto-answer call and the second outgoing voice call attemptis automatically answered with the loudspeaker on, whereby said alternative function is administered by means of a connected database, which defines the situations for activating said alternative function.
A measurement system including a processing block and a set of devices (3, 4, 5) for measuring physical quantities, connected to the processing block, wherein the processing block is adapted so as to collect measurements of physical quantities conducted by said set and includes telecommunication means for information determined as a function of said measurement, intended for an external module, the processing block includes first means for receiving an electric power supply for the processing block generated by means of at least one physical quantity measured by the set of measurement device(s), the measurement system being characterized in that the processing block further includes second means for receiving an electric power supply for the processing block, distinct from the first means for receiving an electric power supply, said means for receiving an electric power supply including a housing for receiving an electric power supply device adapted so as to provide an electric power supply signal, the processing block being adapted for, following reception of an electric power device in said housing, performing an operation for configuring the system, the processing block being powered by the second means for receiving an electric power supply.
A blood filter assembly comprising a housing, a filtration medium contained within the housing comprising first and second sheets of a flexible medical grade plastic material (20, 22), the filtration medium being sized and configured to define two or more filtration regions (28, 30) within the housing, for providing independent and concurrent filtration, each filtration region (28, 30) being served by its own inlet path (32, 34) from outside the housing, an outlet manifold within the housing to receive blood from all the filtration regions (28, 30) after passage through the filtration medium and an outlet comprising at least one outlet path comprising a tubing communicating with the outlet manifold to convey blood from, the housing, wherein a main seal joins the housing to the filtration medium and a portion of the outlet tubing extends through the main seal and into the manifold.
A friction stir welding device comprising: a friction stir welding tool provided with a fixed shoulder, which is a non-rotatable stationary shoulder, on an outer periphery on a proximal end side of a rotationally drivable probe; a moving unit configured to relatively move the friction stir welding tool to a welding portion between the workpieces (W1, W2) in a direction along the welding portion; a control device of the moving unit; and a filler supply unit configured to supply a filler to a stirring region (s) which is stirred by the probe at the time of friction stir welding of the welding portion, characterized in that the control device has a function of holding the fixed shoulder of the friction stir welding tool with the probe immersed into the welding portion, at a position separated by a gap from surfaces (P1, P2) of the workpieces (W1, W2), while the probe is moved, and wherein the control device controls the position of the fixed shoulder such that it is at a position separated from the surfaces (P1, P2) by the gap as a target position, on the basis of information on the positions of the surfaces (P1, P2) of the workpieces (W1, W2). a friction stir welding tool provided with a fixed shoulder, which is a non-rotatable stationary shoulder, on an outer periphery on a proximal end side of a rotationally drivable probe; a moving unit configured to relatively move the friction stir welding tool to a welding portion between the workpieces (W1, W2) in a direction along the welding portion; a control device of the moving unit; and a filler supply unit configured to supply a filler to a stirring region (s) which is stirred by the probe at the time of friction stir welding of the welding portion, characterized in that the control device has a function of holding the fixed shoulder of the friction stir welding tool with the probe immersed into the welding portion, at a position separated by a gap from surfaces (P1, P2) of the workpieces (W1, W2), while the probe is moved, and wherein the control device controls the position of the fixed shoulder such that it is at a position separated from the surfaces (P1, P2) by the gap as a target position, on the basis of information on the positions of the surfaces (P1, P2) of the workpieces (W1, W2).
A method for transmitting data by user equipment, UE (20, 1000), wherein the method comprises: receiving, by the UE (20, 1000), broadcast signaling sent by a base station (10, 1100); acquiring, by the UE (20, 1000), a first preset threshold by analyzing the broadcast signaling; receiving, by the UE (20, 1000), unicast signaling sent by the base station (10, 1100); resolving, by the UE (20, 1000), a second preset threshold corresponding to a preset user level from the unicast signaling; updating, by the UE (20, 1000), the first preset threshold with the second preset threshold; determining, by the UE (20, 1000), whether a length of cached data of the UE (20, 1000) is no less than the first preset threshold (101, 201); in response to determining that the length of the cached data of the UE (20, 1000) is no less than the first preset threshold, dividing, by the UE (20, 1000) in a preset mode, the cached data into two groups of data, wherein the cached data is stored in a Packet Data Convergence Protocol, PDCP, cache; and uploading, by the UE (20, 1000), the two groups of data to the base station (10, 1100) respectively through a mobile network and a Wireless Local Area Network, WLAN. receiving, by the UE (20, 1000), broadcast signaling sent by a base station (10, 1100); acquiring, by the UE (20, 1000), a first preset threshold by analyzing the broadcast signaling; receiving, by the UE (20, 1000), unicast signaling sent by the base station (10, 1100); resolving, by the UE (20, 1000), a second preset threshold corresponding to a preset user level from the unicast signaling; updating, by the UE (20, 1000), the first preset threshold with the second preset threshold; determining, by the UE (20, 1000), whether a length of cached data of the UE (20, 1000) is no less than the first preset threshold (101, 201); in response to determining that the length of the cached data of the UE (20, 1000) is no less than the first preset threshold, dividing, by the UE (20, 1000) in a preset mode, the cached data into two groups of data, wherein the cached data is stored in a Packet Data Convergence Protocol, PDCP, cache; and uploading, by the UE (20, 1000), the two groups of data to the base station (10, 1100) respectively through a mobile network and a Wireless Local Area Network, WLAN.
A filter element comprising a frame member for a pleated filter element, said frame comprising an integral channel sectioned former (16, 17) bonded to a core of a synthetic resin (18, 19), wherein apertures are provided in the base of the channel of the former, wherein the filter element comprises a pair of pleated filter cloths (13, 14) with lozenge shaped spaces between the cloths, wherein the resin material of the core is excluded from the interior of the spaces and the edge regions of the pleated filter cloths (13, 14) are located in the channel sectioned former (16, 17) such that the spaces between the cloths align with the apertures in the base of the channel of the former such that air may flow from within the spaces out through the apertures, wherein the edge regions of the filter element are cast into the resin core (18, 19).
Packaging comprising: a base (16, 18); a pair of first flaps (28, 30) located on opposing sides of the base and arranged to be folded over the base and secured together so as to define a packaging enclosure; a pair of second flaps (56, 58) located on opposing sides of the base and arranged to be folded over the pair of first flaps and secured together so as to form a cruciform configuration with the pair of first flaps; and first and second opening features (42, 66) independently operable in use to respectively separate the pair of first flaps from one another and the pair of second flaps from one another so as to open the packaging; characterizing in that: the pair of first flaps are arranged to be folded over the base and bonded to one another in an overlapping configuration, the degree of overlap of the pair of first flaps being variable; and at least one of the pair of first flaps comprises a chamfered portion (32, 34) formed by first and second folds along the width of the flap which allows the volume of the packaging enclosure to be changed by changing the degree of overlap of the pair of first flaps. a base (16, 18); a pair of first flaps (28, 30) located on opposing sides of the base and arranged to be folded over the base and secured together so as to define a packaging enclosure; a pair of second flaps (56, 58) located on opposing sides of the base and arranged to be folded over the pair of first flaps and secured together so as to form a cruciform configuration with the pair of first flaps; and first and second opening features (42, 66) independently operable in use to respectively separate the pair of first flaps from one another and the pair of second flaps from one another so as to open the packaging; characterizing in that: the pair of first flaps are arranged to be folded over the base and bonded to one another in an overlapping configuration, the degree of overlap of the pair of first flaps being variable; and at least one of the pair of first flaps comprises a chamfered portion (32, 34) formed by first and second folds along the width of the flap which allows the volume of the packaging enclosure to be changed by changing the degree of overlap of the pair of first flaps. the pair of first flaps are arranged to be folded over the base and bonded to one another in an overlapping configuration, the degree of overlap of the pair of first flaps being variable; and at least one of the pair of first flaps comprises a chamfered portion (32, 34) formed by first and second folds along the width of the flap which allows the volume of the packaging enclosure to be changed by changing the degree of overlap of the pair of first flaps.
A method for binding a recombinant polypeptide to a carrier, wherein a layer is bound to a carrier, and the layer comprises a recombinant polypeptide on the surface distal to the carrier, said method comprising the steps: (a) providing a host cell transformed with a nucleic acid fusion operatively linked with an expression control sequence, said nucleic acid fusion comprising: (i) a portion encoding a signal peptide, (ii) a portion encoding the recombinant polypeptide to be displayed, (iii) a portion encoding a transmembrane linker, and (iv) a portion encoding the transporter domain of an autotransporter, (b) culturing the host cell under conditions wherein the nucleic acid fusion is expressed and the expression product comprising the recombinant polypeptide is displayed on the surface of the host cell, and (c) preparing membrane particles from the host cell of (b), (d) contacting the membrane particles prepared in step (c) with a surface of a carrier so that the membrane particles form a layer bound to the surface, wherein the recombinant polypeptide is located on the surface distal to the carrier. (a) providing a host cell transformed with a nucleic acid fusion operatively linked with an expression control sequence, said nucleic acid fusion comprising: (i) a portion encoding a signal peptide, (ii) a portion encoding the recombinant polypeptide to be displayed, (iii) a portion encoding a transmembrane linker, and (iv) a portion encoding the transporter domain of an autotransporter, (i) a portion encoding a signal peptide, (ii) a portion encoding the recombinant polypeptide to be displayed, (iii) a portion encoding a transmembrane linker, and (iv) a portion encoding the transporter domain of an autotransporter, (b) culturing the host cell under conditions wherein the nucleic acid fusion is expressed and the expression product comprising the recombinant polypeptide is displayed on the surface of the host cell, and (c) preparing membrane particles from the host cell of (b), (d) contacting the membrane particles prepared in step (c) with a surface of a carrier so that the membrane particles form a layer bound to the surface, wherein the recombinant polypeptide is located on the surface distal to the carrier.
A system for monitoring a pressure exerted on a tissue site, the system comprising: a transmitter operable to emit a first signal and to receive a second signal (114,116), wherein the transmitter is configured to output an alert when the transmitter receives the second signal (114, 116); and a pressure switch (110,112) adapted for placement adjacent the tissue site, the pressure switch comprising: an antenna operable to receive the first signal; a diode disposed adjacent the antenna and spaced apart from the antenna by a gap; and a membrane covering the antenna and the diode, the membrane movable from an unpressed position to a pressed position when a required amount of force is exerted on the membrane, wherein the membrane is configured to touch both the antenna and the diode in the pressed position to electrically bridge the gap and close the circuit between the antenna and the diode when the membrane is in the pressed position; whereby the antenna is operable to send the second signal (114, 116) when the membrane is in the pressed position. a transmitter operable to emit a first signal and to receive a second signal (114,116), wherein the transmitter is configured to output an alert when the transmitter receives the second signal (114, 116); and a pressure switch (110,112) adapted for placement adjacent the tissue site, the pressure switch comprising: an antenna operable to receive the first signal; a diode disposed adjacent the antenna and spaced apart from the antenna by a gap; and a membrane covering the antenna and the diode, the membrane movable from an unpressed position to a pressed position when a required amount of force is exerted on the membrane, wherein the membrane is configured to touch both the antenna and the diode in the pressed position to electrically bridge the gap and close the circuit between the antenna and the diode when the membrane is in the pressed position; whereby the antenna is operable to send the second signal (114, 116) when the membrane is in the pressed position. an antenna operable to receive the first signal; a diode disposed adjacent the antenna and spaced apart from the antenna by a gap; and a membrane covering the antenna and the diode, the membrane movable from an unpressed position to a pressed position when a required amount of force is exerted on the membrane, wherein the membrane is configured to touch both the antenna and the diode in the pressed position to electrically bridge the gap and close the circuit between the antenna and the diode when the membrane is in the pressed position;