mhurhangee/ep-ind-claims huggingface dataset:
A non-woven fabric support comprising a mixture of fibers consisting of at least: a) bi-component fiber with linear density between 2-4 dtex, length 40-80 mm, consisting of two coaxially extruded materials where the inner part has a melting point higher than the external part; b) organic hydrophilic fibers of polyester and/or polypropylene, with a density between 1.2-1.6 dTex, length 30-60 mm, provided with surface channels. a) bi-component fiber with linear density between 2-4 dtex, length 40-80 mm, consisting of two coaxially extruded materials where the inner part has a melting point higher than the external part; b) organic hydrophilic fibers of polyester and/or polypropylene, with a density between 1.2-1.6 dTex, length 30-60 mm, provided with surface channels.
A charge device characterized in that it comprises: a multi-stage voltage doubler rectifier circuit in which two series-connected diodes (D1, D2; D3, D4) are connected in parallel, respectively, to each of series-connected 1st to nth capacitors ( COUT1; COUT2) (where n is an integer of 2 or more), and an intermediate capacitor (C1; C2) is further connected, respectively, between each intermediate point of the two series-connected diodes and a common point; a converter comprising an element configured to be supplied with a rectangular waveform voltage during operation; and an input circuit operable, in response to receiving an input of a voltage from the element, to output a voltage to the multi-stage voltage doubler rectifier circuit, wherein the charge device is configured such that the series-connected 1st to nth capacitors are connected to an output part of the converter to thereby charge the 1st to nth capacitors by an output voltage of the converter, and a voltage is input from the element into the multi-stage voltage doubler rectifier circuit via the input circuit to thereby equally charge the 1st to nth capacitors. a multi-stage voltage doubler rectifier circuit in which two series-connected diodes (D1, D2; D3, D4) are connected in parallel, respectively, to each of series-connected 1st to nth capacitors ( COUT1; COUT2) (where n is an integer of 2 or more), and an intermediate capacitor (C1; C2) is further connected, respectively, between each intermediate point of the two series-connected diodes and a common point; a converter comprising an element configured to be supplied with a rectangular waveform voltage during operation; and an input circuit operable, in response to receiving an input of a voltage from the element, to output a voltage to the multi-stage voltage doubler rectifier circuit, wherein the charge device is configured such that the series-connected 1st to nth capacitors are connected to an output part of the converter to thereby charge the 1st to nth capacitors by an output voltage of the converter, and a voltage is input from the element into the multi-stage voltage doubler rectifier circuit via the input circuit to thereby equally charge the 1st to nth capacitors.
A pharmaceutical composition comprising at least 1 wt.-% of a sulfated polysaccharide which is a fucoidan for use in the treatment or prophylaxis of (i) influenza virus infection or (ii) a condition or a symptom caused by an influenza virus infection; wherein the influenza virus is sub-type A H 1 N 1 or sub-type A H 3 N 2, and the fucoidan has an average molecular weight (Mw) of 20,000 Daltons to 5 million Daltons.
A foldable warning triangle assembly comprising: three arms (912, 914, 916) configurable as a triangle, wherein each arm has an arm connector (918, 920, 922) connectable to a corresponding arm connector of one of the arms, and wherein one of the three arms comprises two arm portions (938, 940) pivotably connected together about a first arm connector and the other two arms pivotably connected about a second arm connector, wherein the first and second arm connectors are pivot points arranged to allow the three arms to pivot such that the warning triangle assembly can be folded into a substantially collapsed arrangement and unfolded to form a triangle without disconnecting the three arms; one of the three arms of the warning triangle assembly comprising a first coupling edge section arranged adjacent one of the pivot points, wherein the first coupling edge section is arranged such that the separation between the first coupling edge section and an adjacent second coupling edge section of one of the three arms is a minimum when the warning triangle assembly is fully unfolded; characterized by an electrical connection arranged adjacent to the first coupling edge section and wherein the pivoting of the arms to configure the arms as a triangle completes an electrical circuit. three arms (912, 914, 916) configurable as a triangle, wherein each arm has an arm connector (918, 920, 922) connectable to a corresponding arm connector of one of the arms, and wherein one of the three arms comprises two arm portions (938, 940) pivotably connected together about a first arm connector and the other two arms pivotably connected about a second arm connector, wherein the first and second arm connectors are pivot points arranged to allow the three arms to pivot such that the warning triangle assembly can be folded into a substantially collapsed arrangement and unfolded to form a triangle without disconnecting the three arms; one of the three arms of the warning triangle assembly comprising a first coupling edge section arranged adjacent one of the pivot points, wherein the first coupling edge section is arranged such that the separation between the first coupling edge section and an adjacent second coupling edge section of one of the three arms is a minimum when the warning triangle assembly is fully unfolded; characterized by an electrical connection arranged adjacent to the first coupling edge section and wherein the pivoting of the arms to configure the arms as a triangle completes an electrical circuit.
A device suitable for use in a body lumen comprising an elongated control arm (1,2) and a radially expansible cage disposed at or adjacent to a distal end of the elongated control arm that is adjustable between a contracted orientation and an expanded (deployed) orientation, wherein the radially expansible cage is adapted to scrape thrombus from vessel walls, or collect matter removed from vessel walls, when in a deployed orientation, and wherein the device comprises an extractor (42,43) comprising a helical formation adapted to rotate having a distal end located inside the radially expansible cage, in which the helical formation is disposed within an extractor tube and the extractor tube comprises a cutting edge and wherein the helical formation has a variable pitch along its length.
An electromechanical microswitch, comprising: first and second electromagnets (12, 14) mounted in spaced-apart orientation to one another on a mounting surface and defining a sliding volume between them, said first and second electromagnets (12, 14) each having an electromagnetic field center located a first distance above the mounting surface; and characterized by a stripline switch element mountable to a surface substantially between the first and second electromagnets (12, 14), said stripline switch including a fixed portion having an aperture defining a sliding boundary between the first and second electromagnets (12, 14) and a sliding portion received within the aperture for lineal movement between first and second activated positions, with said sliding portion including a facing portion directed toward the mounting surface and an opposing surface facing out of the aperture; and a permanent magnet coupled to the opposing surface of the sliding portion and mounted within the sliding volume between the first and second electromagnets (12, 14), said permanent magnet having a magnetic field center located a second distance above the mounting surface, with the second distance being greater than the first distance so that the permanent magnet is biased toward the mounting surface. first and second electromagnets (12, 14) mounted in spaced-apart orientation to one another on a mounting surface and defining a sliding volume between them, said first and second electromagnets (12, 14) each having an electromagnetic field center located a first distance above the mounting surface; and characterized by a stripline switch element mountable to a surface substantially between the first and second electromagnets (12, 14), said stripline switch including a fixed portion having an aperture defining a sliding boundary between the first and second electromagnets (12, 14) and a sliding portion received within the aperture for lineal movement between first and second activated positions, with said sliding portion including a facing portion directed toward the mounting surface and an opposing surface facing out of the aperture; and a permanent magnet coupled to the opposing surface of the sliding portion and mounted within the sliding volume between the first and second electromagnets (12, 14), said permanent magnet having a magnetic field center located a second distance above the mounting surface, with the second distance being greater than the first distance so that the permanent magnet is biased toward the mounting surface.
An apparatus of user equipment, UE, configured for direct communication with one or more other UEs, the apparatus comprising: memory; and processing circuitry configured to: receive signaling acquired from a base station, BS, the signaling indicating allocation information for a sidelink communication, the sidelink communication comprising a device-to-device, D2D, communication between UEs; transmit control information, for the D2D communication within resources of a physical D2D control channel in accordance with a single-carrier frequency division multiplexing, SC-FDM, technique; transmit data for the D2D communication within resources of a physical D2D shared channel, in accordance with the SC-FDM technique; and generate a demodulation reference signal, DMRS, for transmission within resources allocated for the D2D communication, wherein the DMRS is configured to enable demodulation of at least one of the physical D2D control channel or the physical D2D shared channel by another UE, wherein resource blocks for the D2D communication are determined in accordance with a predefined hopping pattern when frequency hopping is enabled. memory; and processing circuitry configured to: receive signaling acquired from a base station, BS, the signaling indicating allocation information for a sidelink communication, the sidelink communication comprising a device-to-device, D2D, communication between UEs; transmit control information, for the D2D communication within resources of a physical D2D control channel in accordance with a single-carrier frequency division multiplexing, SC-FDM, technique; transmit data for the D2D communication within resources of a physical D2D shared channel, in accordance with the SC-FDM technique; and generate a demodulation reference signal, DMRS, for transmission within resources allocated for the D2D communication, wherein the DMRS is configured to enable demodulation of at least one of the physical D2D control channel or the physical D2D shared channel by another UE, receive signaling acquired from a base station, BS, the signaling indicating allocation information for a sidelink communication, the sidelink communication comprising a device-to-device, D2D, communication between UEs; transmit control information, for the D2D communication within resources of a physical D2D control channel in accordance with a single-carrier frequency division multiplexing, SC-FDM, technique; transmit data for the D2D communication within resources of a physical D2D shared channel, in accordance with the SC-FDM technique; and generate a demodulation reference signal, DMRS, for transmission within resources allocated for the D2D communication, wherein the DMRS is configured to enable demodulation of at least one of the physical D2D control channel or the physical D2D shared channel by another UE, wherein resource blocks for the D2D communication are determined in accordance with a predefined hopping pattern when frequency hopping is enabled.
An apparatus, comprising: processing logic adapted to determine whether an amplitude of a first frequency portion of an analog signal representative of a barcode is approximately equal to an amplitude of a second frequency portion of the analog signal, characterized in that the processing logic is further adapted to, if it is determined an amplitude of a first frequency portion of the analog signal is approximately equal to an amplitude of a second frequency portion of the analog signal, determine whether a noise filter is OFF, and, if the noise filter is determined to be OFF, determine whether a read rate is less than a predetermined value, and,if the read rate is determined to be less than the predetermined value, to turn the noise filter ON and subsequently leave the noise filter ON or turn the noise filter OFF if it is determined that the read rate has increased or decreased, respectively. processing logic adapted to determine whether an amplitude of a first frequency portion of an analog signal representative of a barcode is approximately equal to an amplitude of a second frequency portion of the analog signal, characterized in that the processing logic is further adapted to, if it is determined an amplitude of a first frequency portion of the analog signal is approximately equal to an amplitude of a second frequency portion of the analog signal, determine whether a noise filter is OFF, and, if the noise filter is determined to be OFF, determine whether a read rate is less than a predetermined value, and,if the read rate is determined to be less than the predetermined value, to turn the noise filter ON and subsequently leave the noise filter ON or turn the noise filter OFF if it is determined that the read rate has increased or decreased, respectively.
Method for operating a monitor of a motor vehicle, comprising the following steps: - capture of an image of a surrounding area of the motor vehicle, - detection of a viewing direction of a user of the motor vehicle, - switching of the monitor to a normal operating mode or a power-saving mode depending on the determined viewing direction, wherein in the power-saving mode power consumption of the monitor is reduced compared to the normal operating mode, and - displaying the image of the surrounding area by means of the monitor, at least while the normal operating mode is specified for it, characterised in that in the detection of the viewing direction, this is predicted in advance and the monitor is switched to the normal operating mode or the power-saving mode depending on a predicted viewing direction. - capture of an image of a surrounding area of the motor vehicle, - detection of a viewing direction of a user of the motor vehicle, - switching of the monitor to a normal operating mode or a power-saving mode depending on the determined viewing direction, wherein in the power-saving mode power consumption of the monitor is reduced compared to the normal operating mode, and - displaying the image of the surrounding area by means of the monitor, at least while the normal operating mode is specified for it,
A pool cleaning robot for cleaning a pool, comprising: a filtering unit; a housing; an impeller; a pump motor for rotating the impeller; a drive system; a first interfacing element (13, 14) for interfacing between the pool cleaning robot and a bottom of the pool while the pool cleaning robot cleans the bottom of the pool; a second interfacing element (21, 22, 23) that comprises at least one wheel that is configured to contact an edge of the pool; wherein said second interfacing element is configured not to contact the bottom of the pool while the pool cleaning robot cleans the bottom of the pool; and wherein the pool cleaning robot is characterized by comprising third pool edge interfacing elements that are rotatable, are located at a central area of a bottom of the pool cleaning robot, and are configured not to contact a horizontal surface of the pool while the pool cleaning robot moves along the horizontal surface. a filtering unit; a housing; an impeller; a pump motor for rotating the impeller; a drive system; a first interfacing element (13, 14) for interfacing between the pool cleaning robot and a bottom of the pool while the pool cleaning robot cleans the bottom of the pool; a second interfacing element (21, 22, 23) that comprises at least one wheel that is configured to contact an edge of the pool; wherein said second interfacing element is configured not to contact the bottom of the pool while the pool cleaning robot cleans the bottom of the pool; and wherein the pool cleaning robot is characterized by comprising third pool edge interfacing elements that are rotatable, are located at a central area of a bottom of the pool cleaning robot, and are configured not to contact a horizontal surface of the pool while the pool cleaning robot moves along the horizontal surface.
A method for maintaining quality of service, QoS, comprising: identifying, by a provider edge, PE, device, a cell loss priority, CLP, and a service type of a newly received asynchronous transfer mode, ATM, cell, and obtaining a corresponding QoS label according to the CLP and the service type; when a buffered ATM cell exists in a local buffer, performing comparison to find whether the QoS label corresponding to the newly received ATM cell is the same as a QoS label corresponding to the buffered ATM cell; if the QoS label of the newly received ATM cell and the buffered ATM cell is the same, buffering the newly received ATM cell; and if QoS label of the newly received ATM cell and the buffered ATM cell is different, encapsulating the buffered ATM cell into a pseudo wire, PW, packet in a concatenation manner and sending the PW packet, wherein the QoS label corresponding to the buffered ATM cell is used as a QoS label of a packet switched network, PSN, transport header of the PW packet, or is used as QoS labels of both the PSN transport header and a PW header of the PW packet, and buffering the newly received ATM cell, such that the newly received ATM cell is not included in the PW packet. identifying, by a provider edge, PE, device, a cell loss priority, CLP, and a service type of a newly received asynchronous transfer mode, ATM, cell, and obtaining a corresponding QoS label according to the CLP and the service type; when a buffered ATM cell exists in a local buffer, performing comparison to find whether the QoS label corresponding to the newly received ATM cell is the same as a QoS label corresponding to the buffered ATM cell; if the QoS label of the newly received ATM cell and the buffered ATM cell is the same, buffering the newly received ATM cell; and if QoS label of the newly received ATM cell and the buffered ATM cell is different, encapsulating the buffered ATM cell into a pseudo wire, PW, packet in a concatenation manner and sending the PW packet, wherein the QoS label corresponding to the buffered ATM cell is used as a QoS label of a packet switched network, PSN, transport header of the PW packet, or is used as QoS labels of both the PSN transport header and a PW header of the PW packet, and buffering the newly received ATM cell, such that the newly received ATM cell is not included in the PW packet.
Method for authorizing a device by means of a message (VMSG), wherein the message (VMSG) comprises a certificate (ZERT) of the device and the certificate (ZERT) exhibits a signature for a check (PROOF1) of an authenticity of the certificate (ZERT), the method comprising: adding an item of permissibility information (ZINFO) to the certificate (ZERT), wherein the permissibility information (ZINFO) indicates, by means of a flag signal, that, apart from checking the signature, a determination of a permissibility of the certificate (ZERT) by means of a positive list is also to be performed, and authorizing the device for applying a first category to at least one application if (a) the checking (PROOF1) of the authenticity of the certificate (ZERT) is performed positively, and (b) the determination (PROOF2) of the permissibility of the certificate (ZERT) by means of the positive list is performed positively. adding an item of permissibility information (ZINFO) to the certificate (ZERT), wherein the permissibility information (ZINFO) indicates, by means of a flag signal, that, apart from checking the signature, a determination of a permissibility of the certificate (ZERT) by means of a positive list is also to be performed, and authorizing the device for applying a first category to at least one application if (a) the checking (PROOF1) of the authenticity of the certificate (ZERT) is performed positively, and (b) the determination (PROOF2) of the permissibility of the certificate (ZERT) by means of the positive list is performed positively. (a) the checking (PROOF1) of the authenticity of the certificate (ZERT) is performed positively, and (b) the determination (PROOF2) of the permissibility of the certificate (ZERT) by means of the positive list is performed positively.
A device comprising: a package module including a substrate having a standard package footprint; an unpackaged semiconductor die directly attached to the substrate; wherein the unpackaged semiconductor die is encapsulated onto the substrate in a structure having a planar top surface; the device further comprising: a separately pre-packaged semiconductor die (120,130) having a top surface and being attached to the substrate; wherein the planar top surface of the encapsulated structure and the top surface of the pre-packaged semiconductor die (120,130) are of equal distance from the substrate, and wherein the device further includes a heat sink coupled to the encapsulated top surface and the die package top surface. a package module including a substrate having a standard package footprint; an unpackaged semiconductor die directly attached to the substrate; wherein the unpackaged semiconductor die is encapsulated onto the substrate in a structure having a planar top surface; the device further comprising: a separately pre-packaged semiconductor die (120,130) having a top surface and being attached to the substrate; wherein the planar top surface of the encapsulated structure and the top surface of the pre-packaged semiconductor die (120,130) are of equal distance from the substrate, and wherein the device further includes a heat sink coupled to the encapsulated top surface and the die package top surface. a separately pre-packaged semiconductor die (120,130) having a top surface and being attached to the substrate; wherein the planar top surface of the encapsulated structure and the top surface of the pre-packaged semiconductor die (120,130) are of equal distance from the substrate, and wherein the device further includes a heat sink coupled to the encapsulated top surface and the die package top surface.
A load indicating device, comprising: a body portion defining a bore extending therethrough; a movable member disposed in at least part of the body portion and configured to move in a direction substantially orthogonal to the axis of the bore; an adjustment means coupled to the movable member and operable to displace the movable member when the body portion is compressed; and a resilient means, wherein the adjustment means is coupled to the movable member via the resilient means. a body portion defining a bore extending therethrough; a movable member disposed in at least part of the body portion and configured to move in a direction substantially orthogonal to the axis of the bore; an adjustment means coupled to the movable member and operable to displace the movable member when the body portion is compressed; and a resilient means, wherein the adjustment means is coupled to the movable member via the resilient means.