mhurhangee/ep-ind-claims huggingface dataset:
An electrical connection via, comprising: a conductor that connects electrical signals through a non-conductive layer; a plurality of sets of split ring resonators (104, 112, 120, 126) including at least a first set and a second set of resonators, wherein each set comprises a plurality of split ring resonators including at least a first and second split ring resonator; wherein the first set of resonators is located in a first layer substantially parallel to the non-conductive layer; wherein the second set of resonators is located in a second layer substantially parallel to the non-conductive layer; and wherein the first set of resonators is located proximate to a first end of the conductor and the second set of resonators is located proximate to a second end of the conductor, wherein the first end of the conductor is opposite to the second end of the conductor. a conductor that connects electrical signals through a non-conductive layer; a plurality of sets of split ring resonators (104, 112, 120, 126) including at least a first set and a second set of resonators, wherein each set comprises a plurality of split ring resonators including at least a first and second split ring resonator; wherein the first set of resonators is located in a first layer substantially parallel to the non-conductive layer; wherein the second set of resonators is located in a second layer substantially parallel to the non-conductive layer; and wherein the first set of resonators is located proximate to a first end of the conductor and the second set of resonators is located proximate to a second end of the conductor, wherein the first end of the conductor is opposite to the second end of the conductor.
A removable enclosure for a mobile negative pressure wound therapy (NPWT) device, the NPWT device comprising a negative pressure pump arranged within a housing of the NPWT device and connected to a wound cover using a conduit, wherein the removable enclosure comprises: - a first housing section, and - a second housing section, wherein: - the second housing section is arranged to join the first housing section to enclose the NPWT device, - at least one of the first or the second housing section is provided with an opening (210, 212) for passage of the conduit through a wall of the first housing section, and - the first and the second housing section each comprises an outer shell material and an inner insulation material, characterized in that - the second housing section is provided with a sound duct extending through the outer shell material and the inner insulation material, - the sound duct is positioned to propagate a sound emitted by a sound generating device comprised with the NPWT device to an outside of the removable enclosure, and - the sound emitted by the sound generating device is indicative of a state of the NPWT device. - a first housing section, and - a second housing section, - the second housing section is arranged to join the first housing section to enclose the NPWT device, - at least one of the first or the second housing section is provided with an opening (210, 212) for passage of the conduit through a wall of the first housing section, and - the first and the second housing section each comprises an outer shell material and an inner insulation material, - the second housing section is provided with a sound duct extending through the outer shell material and the inner insulation material, - the sound duct is positioned to propagate a sound emitted by a sound generating device comprised with the NPWT device to an outside of the removable enclosure, and - the sound emitted by the sound generating device is indicative of a state of the NPWT device.
A method for a network of secondary communication devices comprising transceivers, base stations and a central controller sharing a radio frequency channel with existing primary users, the method comprising: each secondary transceiver and secondary base station measuring the primary signal level in the channel, each secondary transceiver communicating the signal level to the central controller, and the central controller determining which channels each node may potentially use by comparing the primary signal level to a threshold value, wherein: a portion of the secondary transceivers and secondary base stations in a region distant from where the channel is being used sequentially transmit a short duration probe signal with a certain power level P_probe, the secondary transceivers and secondary base stations within a primary region where the channel is being used measure the probe signal amplitude value P_received and send these values to the central controller, and the central controller determines the maximum power level for each secondary transceivers and secondary base stations in the distant based upon the power level value P_probe and the measured probe signal amplitude value. each secondary transceiver and secondary base station measuring the primary signal level in the channel, each secondary transceiver communicating the signal level to the central controller, and the central controller determining which channels each node may potentially use by comparing the primary signal level to a threshold value, wherein: a portion of the secondary transceivers and secondary base stations in a region distant from where the channel is being used sequentially transmit a short duration probe signal with a certain power level P_probe, the secondary transceivers and secondary base stations within a primary region where the channel is being used measure the probe signal amplitude value P_received and send these values to the central controller, and the central controller determines the maximum power level for each secondary transceivers and secondary base stations in the distant based upon the power level value P_probe and the measured probe signal amplitude value. a portion of the secondary transceivers and secondary base stations in a region distant from where the channel is being used sequentially transmit a short duration probe signal with a certain power level P_probe, the secondary transceivers and secondary base stations within a primary region where the channel is being used measure the probe signal amplitude value P_received and send these values to the central controller, and the central controller determines the maximum power level for each secondary transceivers and secondary base stations in the distant based upon the power level value P_probe and the measured probe signal amplitude value.
A network protection entity for protecting a communication network against malformed data packets, the network protection entity comprising: an interface to a network entity within the communication network, wherein the network entity is configured to transfer a stream of data packets entering the network entity based on network address information comprised in the data packets; a memory configured to temporarily store the network address information together with application information comprised in the data packets, wherein the application information indicates application and support protocols for communication via the communication network; and a processor configured to detect an abnormality in the stream of data packets based on checking a relation between the application information and the network address information of the data packets; and if an abnormality is detected to transmit information about the abnormality to the network entity for discarding data packets showing the abnormality, wherein the processor is configured to detect the abnormality in the stream of data packets if a number of request messages sent for a specific application protocol and a specific destination address exceeds a given threshold, wherein the network address information comprises routing information for routing the stream of data packets, characterized in that the processor is configured to detect the abnormality in the stream of data packets if the routing information does not correspond with routing information of a routing protocol comprised in the application information. an interface to a network entity within the communication network, wherein the network entity is configured to transfer a stream of data packets entering the network entity based on network address information comprised in the data packets; a memory configured to temporarily store the network address information together with application information comprised in the data packets, wherein the application information indicates application and support protocols for communication via the communication network; and a processor configured to detect an abnormality in the stream of data packets based on checking a relation between the application information and the network address information of the data packets; and if an abnormality is detected to transmit information about the abnormality to the network entity for discarding data packets showing the abnormality, wherein the processor is configured to detect the abnormality in the stream of data packets if a number of request messages sent for a specific application protocol and a specific destination address exceeds a given threshold, wherein the network address information comprises routing information for routing the stream of data packets, characterized in that the processor is configured to detect the abnormality in the stream of data packets if the routing information does not correspond with routing information of a routing protocol comprised in the application information.
A tool holder (1d; 1f) for tools, in particular for drilling-, turning-, milling-, reaming- or grinding tools, with a longitudinal tool holder axis and a shaft for coupling the tool holder (1d; 1f) to a machine tool, wherein with reference to the longitudinal axis, a center component (2'd) is adjacent to the coupling shaft, a chuck is adjacent to the center component (2'd) and the chuck comprises a tool receiver to which a tool can be disengageably connected, wherein the tool holder (1d; 1f) is configured from modules (2'd, 3d) and at least a first module is disengageably connected to a second module (2'd), which is adjacent with respect to the longitudinal axis of the tool holder (1d; 1f) in the direction of the coupling shaft, and wherein respectively between the modules (3d, 2'd) disengageably connected among one another, a centering interface is provided which is formed by one or plural support surface sections (52, 54), which are integrally disposed at the second module (2'd), which are supported at one or plural opposite surface sections (53, 55), which are integrally configured at the first module, wherein at least one of the interfaces is configured so that the first module is not radially clamped relative to the second module (2'd), or at least clamped in radially outward direction, characterized by the fact that at least at one interface, a planar seat and a conical seat are provided proximal to the outer diameter of the tool holder (1d; 1f), wherein the planar seat is configured between contact surfaces (52, 53) extending orthogonal to the longitudinal axis of the tool holder (1d; 1f) and the conical seat is configured between contact surfaces (54, 55) extending at an angle to the longitudinal axis of the tool holder (1d; 1f).
A method by a terminal in a wireless communication system, comprising: receiving, on a physical broadcast channel, PBCH, signals including a data and masked cyclic redundancy check, CRC, from a base station (101 - 103); demodulating the signals based on a transmission scheme corresponding to a single transmitter by assuming that a number of transmit antennas is 1; descrambling and decoding the demodulated signals at four different transmission timings; performing a CRC check for the masked CRC using a first masking sequence corresponding to the number of transmit antennas being 1 among a plurality of masking sequences, wherein each of the plurality of masking sequence is corresponding to a number of transmit antennas; and determining that the number of transmit antennas configured in the base station is 1, if the CRC check using the first masking sequence is passed. receiving, on a physical broadcast channel, PBCH, signals including a data and masked cyclic redundancy check, CRC, from a base station (101 - 103); demodulating the signals based on a transmission scheme corresponding to a single transmitter by assuming that a number of transmit antennas is 1; descrambling and decoding the demodulated signals at four different transmission timings; performing a CRC check for the masked CRC using a first masking sequence corresponding to the number of transmit antennas being 1 among a plurality of masking sequences, wherein each of the plurality of masking sequence is corresponding to a number of transmit antennas; and determining that the number of transmit antennas configured in the base station is 1, if the CRC check using the first masking sequence is passed.
A vanadium/titania-based catalyst for selectively removing nitrogen oxides from a flue gas through a selective catalytic reduction technique, the vanadium being in a form of oxide and supported on the titania, wherein the amount of vanadium supported on titania is 1-5 wt% based on the weight of the catalyst, wherein a generalized value for V 4+ and V 3+ is 34 atoms/cm 3 wt% to 87 atoms/cm 3 wt%, and a generalized value for Ti 3+ and Ti 2+ is 415 atoms/cm 3 wt% to 1112 atoms/cm 3 wt%, the generalized value being defined as a number of non-stoichiometric atoms per unit volume (cm 3) of the catalyst divided by wt% of the supported vanadium, wherein the number of non-stoichiometric vanadium atoms or titanium atoms per unit volume (cm 3) of catalyst is calculated based on an area (the number of photoelectrons obtained per unit hour) from the XPS analysis in consideration of an atomic sensitivity factor.
Coating device for coating components with a coating agent, in particular for painting motor vehicle body components with a paint, with a) a printhead for applying the coating agent to the component, and b) a coating agent supply for supplying the printhead with the coating agent to be applied, wherein the coating agent flows at a specific coating agent pressure (p) and a specific flow rate from the coating agent supply to the printhead, c) a coating agent pump for conveying the coating agent to the printhead, and d) a controller which controls the coating agent pump as a function of the measured coating agent pressure (p) and/or as a function of the measured flow rate of the coating agent, wherein the controller can be switched between d1) a pressure control mode in which the controller controls the coating agent pressure (p) to a pre-set target pressure, and d2) a flow rate control mode in which the controller controls the flow rate of the coating agent to a predetermined target flow rate, and e) a control unit, which switches the controller between the pressure control mode and the flow rate control mode, characterized in that f) the control unit switches the controller to the pressure control mode when the printhead is operated in a transient state in which nozzle valves of the printhead are opened or closed, and g) the control unit switches the controller into the flow rate control mode when the printhead is operated in a stationary state in which no nozzle valves of the printhead are opened or closed. a) a printhead for applying the coating agent to the component, and b) a coating agent supply for supplying the printhead with the coating agent to be applied, wherein the coating agent flows at a specific coating agent pressure (p) and a specific flow rate from the coating agent supply to the printhead, c) a coating agent pump for conveying the coating agent to the printhead, and d) a controller which controls the coating agent pump as a function of the measured coating agent pressure (p) and/or as a function of the measured flow rate of the coating agent, wherein the controller can be switched between d1) a pressure control mode in which the controller controls the coating agent pressure (p) to a pre-set target pressure, and d2) a flow rate control mode in which the controller controls the flow rate of the coating agent to a predetermined target flow rate, and d1) a pressure control mode in which the controller controls the coating agent pressure (p) to a pre-set target pressure, and d2) a flow rate control mode in which the controller controls the flow rate of the coating agent to a predetermined target flow rate, and e) a control unit, which switches the controller between the pressure control mode and the flow rate control mode, characterized in that f) the control unit switches the controller to the pressure control mode when the printhead is operated in a transient state in which nozzle valves of the printhead are opened or closed, and g) the control unit switches the controller into the flow rate control mode when the printhead is operated in a stationary state in which no nozzle valves of the printhead are opened or closed.
An etchant for copper oxide to selectively remove a copper oxide of a particular valence from a copper oxide-containing layer containing copper oxides of different valences, said etchant consisting of: glycine, ammonium oxalate and water, wherein the concentration in weight% of the ammonium oxalate in the entire etchant is the concentration in weight% of the glycine or less, and pH thereof is 3.5 or more, wherein the percentage of glycine in the etchant ranges from 0.01 weight% to 10 weight%, and therein the percentage of the ammonium oxalate in the etchant is in the range of 0.01 weight % to 10 weight%. glycine, ammonium oxalate and water, wherein the concentration in weight% of the ammonium oxalate in the entire etchant is the concentration in weight% of the glycine or less, and pH thereof is 3.5 or more, wherein the percentage of glycine in the etchant ranges from 0.01 weight% to 10 weight%, and therein the percentage of the ammonium oxalate in the etchant is in the range of 0.01 weight % to 10 weight%.
A communication method, comprising: detecting, by an access point, an interference-type access terminal connection failure associated with mobility between a source access point and a target access point sharing a communication medium, the access point being one of the source access point and the target access point; adapting, by the access point based on the detected connection failure, a backoff threshold for use by the access point and associated with contention-based access to the communication medium, the backoff threshold being adapted so as to increase a likelihood of the source access point yielding the communication medium to the target access point; and contending, by the access point, for access to the communication medium in accordance with the adapted backoff threshold, wherein the adapting comprises switching a Listen Before Talk "LBT" mode from a first detection mechanism having a first backoff threshold to a second detection mechanism having a second backoff threshold that is lower than the first backoff threshold, and wherein the first detection mechanism corresponds to a Clear Channel Assessment "CCA" Energy Detection "CCA-ED" mechanism and the second detection mechanism corresponds to a CCA Preamble Detection "CCA-PD" mechanism. detecting, by an access point, an interference-type access terminal connection failure associated with mobility between a source access point and a target access point sharing a communication medium, the access point being one of the source access point and the target access point; adapting, by the access point based on the detected connection failure, a backoff threshold for use by the access point and associated with contention-based access to the communication medium, the backoff threshold being adapted so as to increase a likelihood of the source access point yielding the communication medium to the target access point; and contending, by the access point, for access to the communication medium in accordance with the adapted backoff threshold, the adapting comprises switching a Listen Before Talk "LBT" mode from a first detection mechanism having a first backoff threshold to a second detection mechanism having a second backoff threshold that is lower than the first backoff threshold, and wherein the first detection mechanism corresponds to a Clear Channel Assessment "CCA" Energy Detection "CCA-ED" mechanism and the second detection mechanism corresponds to a CCA Preamble Detection "CCA-PD" mechanism.
Remote control holder with a connection mechanism for detachably mounting on a road finisher, in particular on a paving screed of the road finisher, the remote control holder being configured to hold a first and a second remote control (7, 8), the remote controls (7, 8) comprising control elements for controlling functions of the road finisher, characterized in that the remote control holder comprises two wings (3, 4) each having a receiving tray, and each wing (3, 4) is intended to receive a remote control (7, 8) in the receiving tray, and the wings (3, 4) are pivotable between a first position, in which the wings (3, 4) are arranged substantially flat next to each other and the remote control holder is open, and a second position, in which the wings (3, 4) are substantially pivoted to each other and the remote control holder is closed.
A method for transversely threading a weatherstrip, fixed on the edge of a flexible fabric, into a weatherstrip channel which is provided with a constriction in the region of its outlet, characterised in that the weatherstrip is caught by a motor-driven gripper in the central region of the length of the weatherstrip channel and is snapped into the weatherstrip channel as the outlet of the weatherstrip channel temporarily widens resiliently and the gripper is subsequently removed, in that the weatherstrip is applied to a base of the weatherstrip channel by means of press-in devices attached on both sides of the previous position of the gripper and in that, starting from this position, the weatherstrip is then progressively snapped into the remaining regions of the weatherstrip channel at the same time in the two mutually opposite directions A, B.
Liquid filter, in particular fuel or oil filter, having a hollow-cylindrical filter element accommodated in a housing component and through which the fluid to be cleaned can flow radially and features end disks (3, 4), having a water-collecting chamber in the bottom of the housing component, wherein the end disk of the filter element facing the bottom is in direct contact with the interior side of the housing component and closes off the water collecting space located under the end disk in a flow-tight manner with respect to the raw side of the filter element, wherein the radially outer edge of the end disk abuts in a flow-tight manner on the housing component, wherein the end disk of the filter element is undetachably connected to the housing component, characterized in that the housing component consists of a plastic material and also the end disk consists of a plastic material which favors a welding process, wherein the end disk of the filter element is welded to the housing component, wherein the filter element and the housing component form a continuous structural unit which can be connected as a whole to a receiving housing.