mhurhangee/ep-ind-claims huggingface dataset:
A networking endpoint comprising a source congestion control module configured to adapt a transmission of packets on a link according to a congestion signal received from a packet forwarding device on the link; and wherein the congestion signal comprises an indication of a congestion level (605, 606) selected from a plurality of congestion levels; and wherein the congestion control module is further configured to: - when no congestion signal is received, probing an available bandwidth according to a first probing scheme; and - when the congestion level corresponds to a first low level of congestion, probing the available bandwidth according to a second probing scheme; and wherein the second probing scheme is slower than the first probing scheme; and - when the congestion signal corresponds to a second high level of congestion, probing the available bandwidth according to a third probing scheme; and wherein the third probing scheme is a back-off probing scheme. - when no congestion signal is received, probing an available bandwidth according to a first probing scheme; and - when the congestion level corresponds to a first low level of congestion, probing the available bandwidth according to a second probing scheme; and wherein the second probing scheme is slower than the first probing scheme; and - when the congestion signal corresponds to a second high level of congestion, probing the available bandwidth according to a third probing scheme; and wherein the third probing scheme is a back-off probing scheme.
An electric supercharger comprising: - an impeller for supercharging a fluid by rotation; - an impeller chamber for accommodating the impeller; - a motor for driving the impeller to rotate; - a motor chamber for accommodating the motor; - a rotational shaft which is common between the impeller and the motor; - a bearing (23, 24) for supporting the rotational shaft to be rotatable, the bearing being of a grease sealed type and provided within the motor chamber; and - an opening provided between the impeller chamber and the motor chamber, the opening functioning as a space for the rotational shaft to pass between the impeller chamber and the motor chamber; characterized by: - the opening functioning as an inlet where the fluid is able to pass therethrough between the impeller chamber and the motor chamber; and by - a seal structure for separating the motor chamber from an exterior at portions other than the opening, suppressing that the fluid flowing into the motor chamber flows out thereof at portions other than the opening. - an impeller for supercharging a fluid by rotation; - an impeller chamber for accommodating the impeller; - a motor for driving the impeller to rotate; - a motor chamber for accommodating the motor; - a rotational shaft which is common between the impeller and the motor; - a bearing (23, 24) for supporting the rotational shaft to be rotatable, the bearing being of a grease sealed type and provided within the motor chamber; and - an opening provided between the impeller chamber and the motor chamber, the opening functioning as a space for the rotational shaft to pass between the impeller chamber and the motor chamber; - the opening functioning as an inlet where the fluid is able to pass therethrough between the impeller chamber and the motor chamber; and by - a seal structure for separating the motor chamber from an exterior at portions other than the opening, suppressing that the fluid flowing into the motor chamber flows out thereof at portions other than the opening.
Gate insulator layer that is in contact with an organic semiconductor layer in an organic electronic device, said gate insulator layer comprising a polycycloolefinic polymer, or a polymer composition comprising a polycycloolefinic polymer, wherein the polycycloolefinic polymer comprises a first type of repeating unit having a pendent crosslinkable group.
A method, comprising: detecting, by at least one sense capacitor (210b, 230b, 230c, 250b) within an apparatus, an acceleration of a proof mass within the apparatus, wherein the proof mass is adjacent to at least two vacuum-sealed cavities (220, 230g, 240); applying a feedback force to the proof mass via at least one feedback capacitor (110p, 130p, 130q, 150q), wherein the feedback force is based on the acceleration of the proof mass; and determining an acceleration of the apparatus based on the feedback force; characterised in that the apparatus includes a plurality of piezoelectric elements configured to dampen vibrations of the proof mass. detecting, by at least one sense capacitor (210b, 230b, 230c, 250b) within an apparatus, an acceleration of a proof mass within the apparatus, wherein the proof mass is adjacent to at least two vacuum-sealed cavities (220, 230g, 240); applying a feedback force to the proof mass via at least one feedback capacitor (110p, 130p, 130q, 150q), wherein the feedback force is based on the acceleration of the proof mass; and determining an acceleration of the apparatus based on the feedback force; characterised in that the apparatus includes a plurality of piezoelectric elements configured to dampen vibrations of the proof mass.
A method of applying a hydrophilic coating to a substrate comprising a medical device, comprising: providing a substrate having an outer, first layer with a surface, said first layer comprising at least in part a water-swellable material; contacting the substrate surface with a solution to swell the water-swellable material, said solution comprising at least one solvent selected from the group consisting of water, alcohols, and mixtures thereof, and a water-soluble polymer capable of being cross-lined to form a cross-linked, lubricious, hydrophilic coating; and cross-linking said water-soluble polymer to form an interpenetrating polymer network with the substrate surface, thereby forming a cross-linked, lubricious, hydrophilic coating entangled with and securely anchored to the substrate surface. providing a substrate having an outer, first layer with a surface, said first layer comprising at least in part a water-swellable material; contacting the substrate surface with a solution to swell the water-swellable material, said solution comprising at least one solvent selected from the group consisting of water, alcohols, and mixtures thereof, and a water-soluble polymer capable of being cross-lined to form a cross-linked, lubricious, hydrophilic coating; and cross-linking said water-soluble polymer to form an interpenetrating polymer network with the substrate surface, thereby forming a cross-linked, lubricious, hydrophilic coating entangled with and securely anchored to the substrate surface.
A bottom flashing element comprising a rail member configured for being attached to a bottom member of a rectangular frame of a roof penetrating structure mounted in an inclined roof, a skirt member attached to the rail member and configured for extending away from the bottom member of the roof penetrating structure and over a roof covering below the roof penetrating structure in a mounted state, and two corner members, each having a first edge configured for extending along a side member of the frame, a second edge attached to the skirt member, a third edge opposite the first edge and a fourth edge opposite the second edge, where the second edge is perpendicular to the first edge, said corner members extending away from the rail member in opposite directions and being configured for extending underneath a roof covering adjacent to the roof penetrating structure in a mounted state, and said corner members having an interior side configured for facing an interior of a building in a mounted state and an exterior side opposite the interior side, and each corner member comprising an edge projection extending along the third edge and projecting from the exterior side, away from the interior side, characterized in that the width of each corner member measured along the second edge from the first edge to the third edge of the corner member is larger than the length of the corner member measured along the first edge. a rail member configured for being attached to a bottom member of a rectangular frame of a roof penetrating structure mounted in an inclined roof, a skirt member attached to the rail member and configured for extending away from the bottom member of the roof penetrating structure and over a roof covering below the roof penetrating structure in a mounted state, and two corner members, each having a first edge configured for extending along a side member of the frame, a second edge attached to the skirt member, a third edge opposite the first edge and a fourth edge opposite the second edge, where the second edge is perpendicular to the first edge, said corner members extending away from the rail member in opposite directions and being configured for extending underneath a roof covering adjacent to the roof penetrating structure in a mounted state, and said corner members having an interior side configured for facing an interior of a building in a mounted state and an exterior side opposite the interior side, and each corner member comprising an edge projection extending along the third edge and projecting from the exterior side, away from the interior side, characterized in that the width of each corner member measured along the second edge from the first edge to the third edge of the corner member is larger than the length of the corner member measured along the first edge.
A method for producing a can body comprising a can jacket extending around a can axis in circumferential direction, and a can bottom, in the case of which method can jackets are made of flat material sections, which are closed in circumferential direction by means of an adhesive connection between contact areas (18, 18') of an overlapping region, and a can bottom is fastened to a front side of each can jacket, wherein, for producing the can jackets, a strip material comprising the flat material sections for the can jackets is guided in its longitudinal direction through a printing press and is imprinted continuously with decorative areas in printing steps, and the flat material sections for the can jackets are separated from the printed strip material, in the case of adjacent decorative areas, the distance on the strip material between the same boundary lines in a first direction of the strip material, namely in the longitudinal direction thereof or in the transverse direction thereof, corresponds to a first expansion of the flat material sections in the direction of the can axis and at right angles to the first direction of a second expansion of the flat material sections in the direction of the can circumference, namely at least to the sum of can circumference and width of the overlapping region, characterised in that the adhesive connection is an adhesive, sealing or plastic bond comprising an adhesive layer in the overlapping region, and the overlapping region extends around at least one circumference of the can jacket and a strip material is thus used, the thickness of which is maximally half as large as the desired wall thickness of the can jacket.
A network comprising: one or more source nodes; one or more receiver nodes; and coding nodes, allowing communication of source processes to each receiver node, the coding nodes being connected with input links for communication of input signals to the coding nodes and output links for communication of output signals from the coding nodes, wherein the output signals from the coding nodes are a linear combination of the input signals, characterized in that a plurality of said coding nodes are configured to generate coefficients of the linear combination using local node numbers or alternatively local link numbers as inputs to a deterministic mapping from the local node numbers or alternatively from local link numbers to the coefficients of the linear combination, wherein the linear combination of processes transmitted from the one or more source nodes present in each signal in the network is specified as a vector of the coefficients, each coefficient corresponding to a process to be transmitted from one or more source nodes, and wherein said coding nodes are configured to update and to transmit the vector of coefficients by applying to the vector of coefficients linear combinations, wherein the linear combinations applied to the vector of coefficients are the same as the linear combinations applied to data transmitted through the network. one or more source nodes; one or more receiver nodes; and coding nodes, allowing communication of source processes to each receiver node, the coding nodes being connected with input links for communication of input signals to the coding nodes and output links for communication of output signals from the coding nodes, wherein the output signals from the coding nodes are a linear combination of the input signals, characterized in that a plurality of said coding nodes are configured to generate coefficients of the linear combination using local node numbers or alternatively local link numbers as inputs to a deterministic mapping from the local node numbers or alternatively from local link numbers to the coefficients of the linear combination, wherein the linear combination of processes transmitted from the one or more source nodes present in each signal in the network is specified as a vector of the coefficients, each coefficient corresponding to a process to be transmitted from one or more source nodes, and wherein said coding nodes are configured to update and to transmit the vector of coefficients by applying to the vector of coefficients linear combinations, wherein the linear combinations applied to the vector of coefficients are the same as the linear combinations applied to data transmitted through the network.
A method, performed by a base station, for J Z configuring uplink sounding transmissions by mobile terminals in a wireless communication network, the method comprising: determining multiple different sets of configuration parameters for the uplink sounding signa transmissions for a given mobile terminal of said mobile terminals, each of the multiple different sets of configuration parameters comprising frequency-domain and time-domain parameters, where the time-domain parameters comprises a time offset, in number of subframes, of the sounding reference signal, position of the sounding reference signal within the subframe, and/or the period, in number of subframes, of the sounding reference signal; and transmitting the multiple different sets of configuration parameters to the mobile terminal, thereby enabling the given mobile terminal to generate different sounding signals based on the multiple different sets of configuration parameters, and receiving said different sounding signals from the given terminal. determining multiple different sets of configuration parameters for the uplink sounding signa transmissions for a given mobile terminal of said mobile terminals, each of the multiple different sets of configuration parameters comprising frequency-domain and time-domain parameters, where the time-domain parameters comprises a time offset, in number of subframes, of the sounding reference signal, position of the sounding reference signal within the subframe, and/or the period, in number of subframes, of the sounding reference signal; and transmitting the multiple different sets of configuration parameters to the mobile terminal, thereby enabling the given mobile terminal to generate different sounding signals based on the multiple different sets of configuration parameters, and receiving said different sounding signals from the given terminal.
Electrical connection body for a charging plug and/or a charging socket, wherein the electrical connection body has a first connection region for electrically conductive connection to an electrical energy receiver and has a second connection region for electrically conductive connection to an electrical energy source, wherein the electrical connection body has a cooling fluid channel, which is formed in the electrical connection body, and a cooling fluid connection which is fluidically connected to the cooling fluid channel, wherein the first connection region is in the form of a contact socket with a receiving space, characterized in that the electrical connection body has a one-way valve which is arranged in the cooling fluid channel and permits fluid to flow from the cooling fluid connection into the cooling fluid channel but prevents fluid from flowing from the cooling fluid channel through the cooling fluid connection, wherein the one-way valve is arranged at the end of the cooling fluid channel between the cooling fluid channel and the receiving space in the contact socket.
A classifying device comprising: a first separator having multiple holes and configured to separate screenings that pass through the holes, and remnants that do not pass through the holes; a first spraying unit disposed on one side of the first separator and configured to spray feedstock containing fiber to be separated from the one side onto the first separator; a first suction unit disposed on the other side of the first separator and configured to suction the screenings that have passed through the holes; and a second suction unit disposed on the one side of the first separator, and configured to suction, from the one side of the first separator, the remnants that do not pass through the holes in the first separator and remain on the first separator; the first separator disposed so the position of the holes can move from a first position opposite the first sprayer to a second position opposite the second suction unit; and the second suction unit configured to suction at the second position the remnants left at the first position, and characterised in that the classifying device further comprises: a second spraying unit disposed to the other side of the first separator, and configured to spray humidified air onto the remnants suctioned by the second suction unit. a first separator having multiple holes and configured to separate screenings that pass through the holes, and remnants that do not pass through the holes; a first spraying unit disposed on one side of the first separator and configured to spray feedstock containing fiber to be separated from the one side onto the first separator; a first suction unit disposed on the other side of the first separator and configured to suction the screenings that have passed through the holes; and a second suction unit disposed on the one side of the first separator, and configured to suction, from the one side of the first separator, the remnants that do not pass through the holes in the first separator and remain on the first separator; the first separator disposed so the position of the holes can move from a first position opposite the first sprayer to a second position opposite the second suction unit; and the second suction unit configured to suction at the second position the remnants left at the first position, and characterised in that the classifying device further comprises: a second spraying unit disposed to the other side of the first separator, and configured to spray humidified air onto the remnants suctioned by the second suction unit.
A rear suspension bicycle, comprising: a front triangle defining a pedaling axis (A p); a rear wheel swingarm configured to allow attachment of a rear wheel; an upper linkage member (18, 20) having a first pivotal connection (90, 92) with the front triangle and a second pivotal connection (94, 96) with the rear wheel swingarm; a lower linkage member (22, 24) having a first pivotal connection (98, 100) with the front triangle and a second pivotal connection (102, 104) with the rear wheel swingarm; and a shock absorber operatively connected to the front triangle and the rear wheel swingarm and configured to control movement of the rear wheel swingarm relative to the front triangle; wherein as the shock absorber is compressed, a rear wheel rotation axis (A w) defines a travel path having an instantaneous center of curvature; characterized in that, when the shock absorber is in a fully compressed state, the center of curvature and an intersection point of a linear extension of the upper linkage member with a linear extension of the lower linkage member are equidistant from the pedaling axis (A p). a front triangle defining a pedaling axis (A p); a rear wheel swingarm configured to allow attachment of a rear wheel; an upper linkage member (18, 20) having a first pivotal connection (90, 92) with the front triangle and a second pivotal connection (94, 96) with the rear wheel swingarm; a lower linkage member (22, 24) having a first pivotal connection (98, 100) with the front triangle and a second pivotal connection (102, 104) with the rear wheel swingarm; and a shock absorber operatively connected to the front triangle and the rear wheel swingarm and configured to control movement of the rear wheel swingarm relative to the front triangle; wherein as the shock absorber is compressed, a rear wheel rotation axis (A w) defines a travel path having an instantaneous center of curvature; characterized in that, when the shock absorber is in a fully compressed state, the center of curvature and an intersection point of a linear extension of the upper linkage member with a linear extension of the lower linkage member are equidistant from the pedaling axis (A p).
A device for opening locks on doors or doors of vehicles, having a support fastened in the door interior, having a handle sitting on the support, which can be actuated from the outer side of the door, having a projection sitting on the handle, having a reversing lever, which is mounted in a pivoted manner in the support, having a shoulder in the reversing lever, which is aligned with the projection on the handle, and having at least one sensor which becomes effective when the handle is actuated, characterized in that the sensor is force-sensitive, is located between the projection and the shoulder, and outputs signals, that is to say: force-change signals, when the handle is actuated owing to the sensed force change between the shoulder and the projection, and in that the force-change signals reach an electronic evaluation and control unit (42, 44), which opens the lock by means of an electric motor.
Sensor kit having a sensor unit and at least one sensor unit holder, characterized in that a magnetically active region is formed on the sensor unit holder and in that the sensor unit has a magnetic field sensor, with which a relative position of the magnetically active region to the sensor unit can be determined and in that location information or a position specification which can be read out by the sensor unit is stored in the magnetically active region.
A protective toe cap for an article of footwear, comprising: a hemi-dome shaped body adapted to cover a user's toes once incorporated into an article a footwear, the body having opposing inner and outer surfaces, a forefoot side, a midfoot side, a medial side, and a lateral side, the body further comprising at least one strain hardened portion (300; 308, 310) and at least one non-strain hardened portion, wherein a thickness of the at least one strain hardened portion (300; 308, 310) is smaller than a thickness of the non-strain hardened portion, and wherein the at least one strain hardened portion (300; 308, 310) is formed as a depression in at least one of the inner surface and the outer surface without a corresponding protrusion present on the opposing surface. a hemi-dome shaped body adapted to cover a user's toes once incorporated into an article a footwear, the body having opposing inner and outer surfaces, a forefoot side, a midfoot side, a medial side, and a lateral side, the body further comprising at least one strain hardened portion (300; 308, 310) and at least one non-strain hardened portion, wherein a thickness of the at least one strain hardened portion (300; 308, 310) is smaller than a thickness of the non-strain hardened portion, and wherein the at least one strain hardened portion (300; 308, 310) is formed as a depression in at least one of the inner surface and the outer surface without a corresponding protrusion present on the opposing surface.