mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: auto-discovering, by a plurality of automatic transition routers in a network, a plurality of islands of Internet Protocol version 6, IPv6, coupled to the plurality of automatic transition routers, with the plurality of automatic transition routers being communicatively coupled via one or more Internet Protocol version 4, IPv4, networks, wherein said auto-discovering includes each of the plurality of automatic transition routers advertising their respective automatic transition capability; responsive to said auto-discovery of the plurality of automatic transition routers and the plurality of IPv6 islands: automatically determining, by one or more of the plurality of automatic transition routers based on an IPv4 routing database, one or more IPv4 tunnels to be established between two or more of the plurality of automatic transition routers for communicatively coupling the plurality of IPv6 islands; responsive to said determination of said one or more IPv4 tunnels: automatically establishing said one or more IPv4 tunnels; and communicating IPv6 packets, between automatic transition routers of the plurality of automatic transition routers, over IPv4 tunnels of said one or more IPv4 tunnels. auto-discovering, by a plurality of automatic transition routers in a network, a plurality of islands of Internet Protocol version 6, IPv6, coupled to the plurality of automatic transition routers, with the plurality of automatic transition routers being communicatively coupled via one or more Internet Protocol version 4, IPv4, networks, wherein said auto-discovering includes each of the plurality of automatic transition routers advertising their respective automatic transition capability; responsive to said auto-discovery of the plurality of automatic transition routers and the plurality of IPv6 islands: automatically determining, by one or more of the plurality of automatic transition routers based on an IPv4 routing database, one or more IPv4 tunnels to be established between two or more of the plurality of automatic transition routers for communicatively coupling the plurality of IPv6 islands; responsive to said determination of said one or more IPv4 tunnels: automatically establishing said one or more IPv4 tunnels; and communicating IPv6 packets, between automatic transition routers of the plurality of automatic transition routers, over IPv4 tunnels of said one or more IPv4 tunnels.
Arrangement for securing access to at least one opening in a wall of a safe module of a device (100, 102) for handling value documents, having a structural unit (40, 202, 302) which, with the aid of two telescopic rails (204, 206, 305a, 305b), is arranged, and connected to the safe module, in such a way that, in a moved-in state of the telescopic rails (204, 206, 305a, 305b), value documents are able to be transported between the safe module and the structural unit (40, 202, 302) through the opening, characterized in that the structural unit (40, 202, 302) has at least one securing plate (214, 312) arranged between the telescopic rails (204, 206, 305a, 305b), wherein the securing plate (214, 312) is at a settable distance (240, 313) from an outer side of the wall of the safe module. having a structural unit (40, 202, 302) which, with the aid of two telescopic rails (204, 206, 305a, 305b), is arranged, and connected to the safe module, in such a way that, in a moved-in state of the telescopic rails (204, 206, 305a, 305b), value documents are able to be transported between the safe module and the structural unit (40, 202, 302) through the opening, characterized in that the structural unit (40, 202, 302) has at least one securing plate (214, 312) arranged between the telescopic rails (204, 206, 305a, 305b), wherein the securing plate (214, 312) is at a settable distance (240, 313) from an outer side of the wall of the safe module.
Method for monitoring a self-piercing riveting device which is used to connect at least two components (11, 12) by means of a rivet and in which, during at least one operating phase (Δt), at least one component (11, 12, 15, 18, 20) involved when pressing the rivet into the at least two components (11, 12) is set vibrating by means of a vibration generator as it is pressed in, characterized in that during the at least one operating phase (Δt), at least temporarily within a predetermined local distance range from the self-piercing riveting device, at least one variable (p, L p) that is characteristic of a sound pressure is determined.
A hybrid metal-organic framework matrix, comprising (i) a MOF matrix, wherein the MOF matrix comprises a plurality of metal ions or clusters coordinated to a plurality of polydentate organic ligands; and (ii) a dopant, wherein the dopant is a nucleophilic amine. (i) a MOF matrix, wherein the MOF matrix comprises a plurality of metal ions or clusters coordinated to a plurality of polydentate organic ligands; and (ii) a dopant, wherein the dopant is a nucleophilic amine.
A case (100, 200, 300) for removably receiving a separate and distinct mobile device having a front device surface, a rear device surface opposite the front device surface, and a periphery extending between the front device surface and the rear device surface of the mobile device, the case comprising: a frame (120, 220, 320) comprising a frame base (165, 365) and a plurality of frame sides (166A, 166B, 167A, 167B) extending away from the frame base to define a frame inner surface; and an elastomeric shell (140, 240, 340) comprising a plurality of adjacent shell sides (156A, 156B, 157A, 157B) attached to each other to define a shell outer surface forming a plurality of outer projections disposed at approximately even intervals and outer troughs extending between respective ones of the outer projections, a shell inner surface forming a plurality of inner projections disposed at approximately even intervals, and a shell rim (150, 250) extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein each of the outer projections define respective outer projection extremities and each of the outer troughs define outer trough extremities, and wherein the frame is configured for surrounding the elastomeric shell such that the frame inner surface is in contact with the plurality of outer projection extremities. a frame (120, 220, 320) comprising a frame base (165, 365) and a plurality of frame sides (166A, 166B, 167A, 167B) extending away from the frame base to define a frame inner surface; and an elastomeric shell (140, 240, 340) comprising a plurality of adjacent shell sides (156A, 156B, 157A, 157B) attached to each other to define a shell outer surface forming a plurality of outer projections disposed at approximately even intervals and outer troughs extending between respective ones of the outer projections, a shell inner surface forming a plurality of inner projections disposed at approximately even intervals, and a shell rim (150, 250) extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein each of the outer projections define respective outer projection extremities and each of the outer troughs define outer trough extremities, and wherein the frame is configured for surrounding the elastomeric shell such that the frame inner surface is in contact with the plurality of outer projection extremities.
A method of clock rate determination comprising: determining, with a processor, an amount of commands in a set of commands that a graphics processing unit, GPU, needs to execute within a set period of time; determining a first clock rate for the GPU, prior to the GPU executing commands in the set of commands, based on the amount of commands in the set of commands; instructing the GPU to execute one or more commands of the set of commands at the first clock rate;during execution of the set of commands, determining a second clock rate for the GPU based on a history of prior executed commands from the set of commands by the GPU; determining a third clock rate for the GPU based on a weighted average of the first clock rate and the second clock rate, wherein determining the third clock rate comprises initially weighting the first clock rate more heavily than the second clock rate in the weighted average and progressively increasing a weighting of the second clock rate in the weighted average during the execution of the commands of the set of commands; outputting information indicating the third clock rate to the GPU; and instructing the GPU to execute one or more commands of the set of commands subsequent to the one or more executed commands. determining, with a processor, an amount of commands in a set of commands that a graphics processing unit, GPU, needs to execute within a set period of time; determining a first clock rate for the GPU, prior to the GPU executing commands in the set of commands, based on the amount of commands in the set of commands; instructing the GPU to execute one or more commands of the set of commands at the first clock rate;during execution of the set of commands, determining a second clock rate for the GPU based on a history of prior executed commands from the set of commands by the GPU; determining a third clock rate for the GPU based on a weighted average of the first clock rate and the second clock rate, wherein determining the third clock rate comprises initially weighting the first clock rate more heavily than the second clock rate in the weighted average and progressively increasing a weighting of the second clock rate in the weighted average during the execution of the commands of the set of commands; outputting information indicating the third clock rate to the GPU; and instructing the GPU to execute one or more commands of the set of commands subsequent to the one or more executed commands.
An outdoor air cleaning system comprising: a partition surrounding a purification space to isolate the purification space from an external space and having at least one opening connecting the purification space to the external space; an air purifying device configured to supply purified air to the purification space; and a controller configured to control the air purifying device, wherein an openness level is 10 % or more and 50 % or less, wherein the openness level is defined as an area ratio of the opening with respect to a surface area of the partition, wherein the partition includes a side wall forming a horizontal boundary between the purification space and the external space and an upper wall forming a vertical boundary between the purification space and the external space, wherein the opening includes a first opening in the side wall, wherein the system further comprises a blocking device configured to block unpurified air from flowing from the external space into the purification space through the first opening, wherein the blocking device includes a vertical blocking device at a vertical edge of the first opening configured to eject the purified air supplied from the air purifying device vertically across the first opening; and characterized in that the vertical blocking device includes an upward blocking device at a lower edge of the first opening configured to eject the purified air upward. a partition surrounding a purification space to isolate the purification space from an external space and having at least one opening connecting the purification space to the external space; an air purifying device configured to supply purified air to the purification space; and a controller configured to control the air purifying device, wherein an openness level is 10 % or more and 50 % or less, wherein the openness level is defined as an area ratio of the opening with respect to a surface area of the partition, wherein the partition includes a side wall forming a horizontal boundary between the purification space and the external space and an upper wall forming a vertical boundary between the purification space and the external space, wherein the opening includes a first opening in the side wall, wherein the system further comprises a blocking device configured to block unpurified air from flowing from the external space into the purification space through the first opening, wherein the blocking device includes a vertical blocking device at a vertical edge of the first opening configured to eject the purified air supplied from the air purifying device vertically across the first opening; and characterized in that the vertical blocking device includes an upward blocking device at a lower edge of the first opening configured to eject the purified air upward.
Medium-voltage load-disconnecting switch having - two contacts which are mounted so as to be movable in relation to one another, wherein a first one of the contacts is a pin contact and the second one of the contacts is a hollow contact with a contact bore for accommodating the pin contact, - a hollow-contact system which comprises the hollow contact and a compression volume, - an arcing chamber, - a plunger which is mounted so as to be movable in relation to the hollow-contact system, wherein - the contact bore opens out into the arcing chamber at a first side and is connected to the compression volume at a second side, - the compression volume is delimited by the plunger at a side which faces away from the contact bore, - the plunger, during an opening movement of the contacts (4, 18), performs a translational movement in relation to the hollow-contact system and brings about a reduction in size of the compression volume, characterized by an insulating-material nozzle which surrounds at least one of the contacts (4, 18) and comprises a self-blast volume for accommodating an insulating gas, wherein the self-blast volume has an opening to the arcing chamber. - two contacts which are mounted so as to be movable in relation to one another, wherein a first one of the contacts is a pin contact and the second one of the contacts is a hollow contact with a contact bore for accommodating the pin contact, - a hollow-contact system which comprises the hollow contact and a compression volume, - an arcing chamber, - a plunger which is mounted so as to be movable in relation to the hollow-contact system, - the contact bore opens out into the arcing chamber at a first side and is connected to the compression volume at a second side, - the compression volume is delimited by the plunger at a side which faces away from the contact bore, - the plunger, during an opening movement of the contacts (4, 18), performs a translational movement in relation to the hollow-contact system and brings about a reduction in size of the compression volume,
Method for energy saving in a telecommunication system with at least one first base station for enabling communication within a cell, a signal having a frame structure being transmitted and received in the cell by the first base station, the structure of the frame comprising a downlink frame part and an uplink frame part, each frame part (15,16) having the ability of carrying at least one data region (19,21) allocated to at least one user or broadcasted for the traffic flow between the telecommunication network and the user terminal via the first base station, the downlink frame part comprising an overhead part with at least synchronization or system information, the frame structured signal being transmitted periodically (Frame N, Frame N+1, Frame N+2, Frame N+3) with a normal interval defined by the system, characterized in that during a power saving mode increases the interval between at least a first and the next following second frame structured signal to a power saving interval, wherein the power saving mode is enabled by periodically interrupting transmission of at least each third frame structured signal, and wherein the overhead part (17, 18) of the transmitted frame structured signal during the power saving mode comprises information about power saving mode and its properties such as at the power saving interval; wherein the power saving mode is activated at certain operating conditions such as the level of usage for the cell capacity, the number of user terminals in the cell and/or statistics of cell usage over time;
Method for removing a moving element from a track of a conveyor system using a pry tool, the method comprising: provide a conveyor system comprising: a track comprising a first magnetic element; and a moving element comprising a second magnetic element for interacting with the track to provide a magnetic force that retains the moving element on the track; wherein absent the magnetic force, the moving element is released from the track, said moving element including one or more pins; provide a pry tool including a corresponding set of grooves and latches; bring the pry tool towards the moving element; insert the pins into the grooves and close the latches to hold the pry tool in place against the moving element; once attached, remove the moving element from the track by moving the pry tool. provide a conveyor system comprising: a track comprising a first magnetic element; and a moving element comprising a second magnetic element for interacting with the track to provide a magnetic force that retains the moving element on the track; a track comprising a first magnetic element; and a moving element comprising a second magnetic element for interacting with the track to provide a magnetic force that retains the moving element on the track; wherein absent the magnetic force, the moving element is released from the track, said moving element including one or more pins; provide a pry tool including a corresponding set of grooves and latches; bring the pry tool towards the moving element; insert the pins into the grooves and close the latches to hold the pry tool in place against the moving element; once attached, remove the moving element from the track by moving the pry tool.
Method for operating a cornering light of a vehicle (101, 701), wherein a light-emission characteristic of the cornering light (109, 603) is controlled on the basis of at least one parameter to set a light cone that is able to be generated by means of the cornering light (109, 603), wherein at least one environment parameter describing a property of an environment of the vehicle (101, 701) is ascertained as a parameter and wherein a light-emission characteristic of the cornering light (109, 603) is controlled on the basis of the ascertained environment parameter to set a light cone that is able to be generated by means of the cornering light (109, 603), characterized in that the environment parameter is a slope and/or a cross slope of a road into which the vehicle (101, 701) is intending to turn and is a slope and/or a cross slope of a street on which the vehicle (101, 701) is currently driving.
An audio signal processing method for encoding a vector, the method comprising: forming a weighting factor; for each element of the vector: - forming an intra-frame prediction of the vector element; - forming an inter-frame prediction of the vector element; - combining said intra-frame prediction and said inter-frame prediction using the weighting factor into a combined prediction; - forming a prediction residual using said vector element and said combined prediction; - encoding the prediction residual with a variable bit rate scheme; and transmitting the encoded prediction residual. forming a weighting factor; for each element of the vector: - forming an intra-frame prediction of the vector element; - forming an inter-frame prediction of the vector element; - combining said intra-frame prediction and said inter-frame prediction using the weighting factor into a combined prediction; - forming a prediction residual using said vector element and said combined prediction; - encoding the prediction residual with a variable bit rate scheme; and transmitting the encoded prediction residual. - forming an intra-frame prediction of the vector element; - forming an inter-frame prediction of the vector element; - combining said intra-frame prediction and said inter-frame prediction using the weighting factor into a combined prediction; - forming a prediction residual using said vector element and said combined prediction; - encoding the prediction residual with a variable bit rate scheme; and transmitting the encoded prediction residual.
A sheet packaging material for producing a sealed package (42; 43) intended to contain a product, the sheet packaging material comprising at least a first crease pattern and at least a second crease pattern, a common group of crease lines belonging to both the first crease pattern and the second crease pattern, the first crease pattern further comprising a first crease arrangement that is specific to the first crease pattern, belongs only to the first crease pattern and is not included in the second crease pattern, the second crease pattern further comprising a second crease arrangement that is specific to the second crease pattern, belongs only to the second crease pattern and is not included in the first crease pattern, wherein the common group of crease lines comprises a top transverse crease line intended to define a plurality of top edges (53, 54, 56, 57) of the package (42; 43), and a bottom transverse crease line intended to define a plurality of bottom edges (52, 58) of the package (42; 43), the first crease arrangement and the second crease arrangement comprising respective crease lines that are interposed between the top transverse crease line and the bottom transverse crease line and extend transversely to the top transverse crease line and to the bottom transverse crease line, wherein the common group of crease lines comprises a further top transverse crease line arranged between the top transverse crease line and a first transverse border of the sheet packaging material, and a further bottom transverse crease line arranged between the bottom transverse crease line and a second transverse border of the sheet packaging material, the further top transverse crease line and the further bottom transverse crease line allowing respective transverse sealing bands of the package (42; 43) to be folded, wherein the top transverse crease line and the further top transverse crease line extend continuously from a first longitudinal border of the sheet packaging material to a second longitudinal border of the sheet packaging material, the bottom transverse crease line and the further bottom transverse crease line extend from the first longitudinal border to the second longitudinal border, whereby by folding the sheet packaging material along the first crease pattern a package having a first conformation is obtained and by folding the sheet packaging material along the second crease pattern a package having a second conformation is obtained, the first conformation being different from the second conformation and being an alternative to the second conformation, wherein the first crease arrangement comprises a first crease line (18; 19) that is intended to define, at least partially, a longitudinal border zone of the package according to the first conformation, the second crease arrangement comprising at least a second crease line (34; 40) that is intended to define, at least partially, a longitudinal border zone of the package according to the second conformation, wherein the first crease line (18; 19) and the second crease line (34; 40) extend between two common end points (K1, K3; J1, J3).