mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a first streaming digital audio content server that is connected to the Internet; a wireless network adapter that is external to a digital audio player, wherein the wireless network adapter is configured to connect to the digital audio player via an audio jack of the digital audio player, wherein the wireless network adapter is for encoding analog audio received from the digital audio player into digital format and wirelessly transmitting the digitally-formatted audio; a pair of earphones configured to be worn simultaneously by a user and wherein each earphone in the pair of earphones comprises: a transceiver that is for: receiving digitally-formatted audio; and converting the received digitally-formatted audio to analog audio signals; and at least one acoustic transducer connected to the transceiver, wherein the at least one acoustic transducer is for outputting the analog audio signals; and wherein: in a first mode, the pair of earphones receive digitally-formatted audio from the wireless network adapter via an ad hoc wireless network; and in a second mode, the pair of earphones receive digitally-formatted audio from the first streaming digital audio content server via an infrastructure wireless network. a first streaming digital audio content server that is connected to the Internet; a wireless network adapter that is external to a digital audio player, wherein the wireless network adapter is configured to connect to the digital audio player via an audio jack of the digital audio player, wherein the wireless network adapter is for encoding analog audio received from the digital audio player into digital format and wirelessly transmitting the digitally-formatted audio; a pair of earphones configured to be worn simultaneously by a user and wherein each earphone in the pair of earphones comprises: a transceiver that is for: receiving digitally-formatted audio; and converting the received digitally-formatted audio to analog audio signals; and at least one acoustic transducer connected to the transceiver, wherein the at least one acoustic transducer is for outputting the analog audio signals; and a transceiver that is for: receiving digitally-formatted audio; and converting the received digitally-formatted audio to analog audio signals; and at least one acoustic transducer connected to the transceiver, wherein the at least one receiving digitally-formatted audio; and converting the received digitally-formatted audio to analog audio signals; and at least one acoustic transducer connected to the transceiver, wherein the at least one acoustic transducer is for outputting the analog audio signals; and in a first mode, the pair of earphones receive digitally-formatted audio from the wireless network adapter via an ad hoc wireless network; and in a second mode, the pair of earphones receive digitally-formatted audio from the first streaming digital audio content server via an infrastructure wireless network.
An optical scanning device comprising: a substrate; a surface-emitting laser element mounted on the substrate with an emitting direction thereof facing upward with respect to the substrate; a MEMS optical deflector mounted on the substrate with a rotating mirror facing upward with respect to the substrate; a plate-shaped support member fixed to the substrate; a first mirror extending in a second axial direction which is perpendicular to a first axial direction as an arrangement direction of the surface-emitting laser element and the MEMS optical deflector on the substrate and which is parallel to the substrate, and being supported by a first support part of the plate-shaped support member so as to reflect emitted light from the surface-emitting laser element in the first axial direction; and a second mirror extending in the second axial direction, and being supported by a second support part of the plate-shaped support member such that light from the first mirror is reflected toward the rotating mirror of the MEMS optical deflector; wherein at least one support part out of the first support part and the second support part includes a rotating mechanism (27, 31, 78a, 78b) which rotatably supports one mirror out of the first mirror and the second mirror supported by the one support part, and a fixing member which fixes a rotational position of the one mirror in the rotating mechanism. a substrate; a surface-emitting laser element mounted on the substrate with an emitting direction thereof facing upward with respect to the substrate; a MEMS optical deflector mounted on the substrate with a rotating mirror facing upward with respect to the substrate; a plate-shaped support member fixed to the substrate; a first mirror extending in a second axial direction which is perpendicular to a first axial direction as an arrangement direction of the surface-emitting laser element and the MEMS optical deflector on the substrate and which is parallel to the substrate, and being supported by a first support part of the plate-shaped support member so as to reflect emitted light from the surface-emitting laser element in the first axial direction; and a second mirror extending in the second axial direction, and being supported by a second support part of the plate-shaped support member such that light from the first mirror is reflected toward the rotating mirror of the MEMS optical deflector; wherein at least one support part out of the first support part and the second support part includes a rotating mechanism (27, 31, 78a, 78b) which rotatably supports one mirror out of the first mirror and the second mirror supported by the one support part, and a fixing member which fixes a rotational position of the one mirror in the rotating mechanism.
A method for producing a low-moisture wet cake comprising solid particles of terephthalic acid, said method comprising: (a) introducing a slurry comprising said solid particles and a liquid into a product isolation zone; (b) separating said slurry into a mother liquor and an initial wet cake comprising at least a portion of said solid particles; (c) washing said initial wet cake with a wash feed having an initial temperature of at least 40 °C to thereby produce a washed wet cake and a wash liquor; and (d) dewatering said washed wet cake with a dewatering gas to produce said low-moisture wet cake, wherein said low-moisture wet cake comprises less than 12 weight percent liquid. (a) introducing a slurry comprising said solid particles and a liquid into a product isolation zone; (b) separating said slurry into a mother liquor and an initial wet cake comprising at least a portion of said solid particles; (c) washing said initial wet cake with a wash feed having an initial temperature of at least 40 °C to thereby produce a washed wet cake and a wash liquor; and (d) dewatering said washed wet cake with a dewatering gas to produce said low-moisture wet cake, wherein said low-moisture wet cake comprises less than 12 weight percent liquid.
Method for producing a sealing strip, wherein a foam carrier is transported in a predetermined transport direction and at least one cut is made in this foam carrier, which cut extends in this transport direction, and at least two foam carrier strips (10a, 10b) which are completely separated from one another and have at least one outer surface are produced by this cut, wherein a spacing between this first foam carrier strip and the second foam carrier strip being increased in which at least one of said two foam carrier strips is at least temporarily transported in a different direction than the other foam carrier strip, characterized in that a distance between said at least two foam carrier strips is increased in a direction perpendicular to a plane formed by said transport direction on the one hand and said width direction on the other hand, a material is applied to at least one outer surface of at least one of said two foam carrier strips (10a, 10b), and said foam carrier strips, after being removed from each other, are rejoined. a distance between said at least two foam carrier strips is increased in a direction perpendicular to a plane formed by said transport direction on the one hand and said width direction on the other hand, a material is applied to at least one outer surface of at least one of said two foam carrier strips (10a, 10b), and said foam carrier strips, after being removed from each other, are rejoined.
A self-propelled aerial work platform (1; 101) comprising: - a chassis (2; 102) having a longitudinal axis along which the chassis is able to move on the ground in a forward direction (F AV) and in a backward direction (F AR) opposite to the forward direction, - a work platform (20; 120), - a lifting structure (6; 110) mounted on the chassis and supporting the work platform, - a control console (30; 130) allowing to: ∘ control the lifting structure for moving the platform to a working position at a height, and ∘ selectively move the chassis on the ground in the forward direction (F AV) and the backward direction (F AR), chraracterized in that the aerial work platform further comprises a visual signalling system for indicating the direction of movement of the chassis on the ground selected at the control station (30; 130) from the forward and backward directions (F AV, F AR) by activating at least one visual indication (63a, 63b, 64a, 64b; 70.i; 72; 163a, 163b, 164a, 164b): ∘ located on the side of the chassis that corresponds to the direction of movement selected, or ∘ having an oriented form pointing in the direction of movement selected. - a chassis (2; 102) having a longitudinal axis along which the chassis is able to move on the ground in a forward direction (F AV) and in a backward direction (F AR) opposite to the forward direction, - a work platform (20; 120), - a lifting structure (6; 110) mounted on the chassis and supporting the work platform, - a control console (30; 130) allowing to: ∘ control the lifting structure for moving the platform to a working position at a height, and ∘ selectively move the chassis on the ground in the forward direction (F AV) and the backward direction (F AR), chraracterized in that the aerial work platform further comprises a visual signalling system for indicating the direction of movement of the chassis on the ground selected at the control station (30; 130) from the forward and backward directions (F AV, F AR) by activating at least one visual indication (63a, 63b, 64a, 64b; 70.i; 72; 163a, 163b, 164a, 164b): ∘ located on the side of the chassis that corresponds to the direction of movement selected, or ∘ having an oriented form pointing in the direction of movement selected. ∘ control the lifting structure for moving the platform to a working position at a height, and ∘ selectively move the chassis on the ground in the forward direction (F AV) and the backward direction (F AR), ∘ located on the side of the chassis that corresponds to the direction of movement selected, or ∘ having an oriented form pointing in the direction of movement selected.
A method comprising: identifying a first internet protocol version 6 address of a particular computing device (220, 225, 230) within a network using a first passive discovery sensor performing a first discovery task, said first discovery task comprising monitoring network traffic by the first passive discovery sensor for discovering new device addresses whenever such devices communicate over the network; causing a second discovery task to be performed using the first IPv6 address; identifying an attribute of the particular computing device (220, 225, 230) from results of the second discovery task; and adding the first IPv6 address and attribute of the particular device (220, 225, 230) to a repository maintaining a record of detected IPv6 addresses within the network; wherein the second discovery task is an active discovery task performed by an active discovery sensor, said second discovery task comprising periodically verifying that the particular device (220, 225, 230) is active within the network, based on pinging the computing device (220, 225, 230), and disabling said periodical verifying if discovery of the particular device (220, 225, 230) failed for a predefined number of times. identifying a first internet protocol version 6 address of a particular computing device (220, 225, 230) within a network using a first passive discovery sensor performing a first discovery task, said first discovery task comprising monitoring network traffic by the first passive discovery sensor for discovering new device addresses whenever such devices communicate over the network; causing a second discovery task to be performed using the first IPv6 address; identifying an attribute of the particular computing device (220, 225, 230) from results of the second discovery task; and adding the first IPv6 address and attribute of the particular device (220, 225, 230) to a repository maintaining a record of detected IPv6 addresses within the network; wherein the second discovery task is an active discovery task performed by an active discovery sensor, said second discovery task comprising periodically verifying that the particular device (220, 225, 230) is active within the network, based on pinging the computing device (220, 225, 230), and disabling said periodical verifying if discovery of the particular device (220, 225, 230) failed for a predefined number of times.
A method performed by an apparatus for delivering notification information to one or more wireless devices, comprising: sending, in a primary flow (108, 124, 138), a primary message (112, 126, 140) comprising data indicating current notification status information; wherein the current notification status information comprises a current notification version; and the method further comprises: sending, in a notification flow (116, 130, 142), one or more notification messages (118, 132, 134, 144) separate from the primary message, each of the one or more notification messages being addressed to at least one of the one or more wireless devices, and wherein each of the one or more notification messages is identified by the current notification version, characterized in that the one or more notification messages comprise at least first address information corresponding to a respective address class identifying a group of devices subscribed to a service provider or a channel and second address information corresponding to particular groups of wireless devices to whom the one or more notification messages are addressed, wherein the second address information corresponds to one or more group addresses, each group of addresses identifying a group of devices within the respective address class. sending, in a primary flow (108, 124, 138), a primary message (112, 126, 140) comprising data indicating current notification status information; wherein the current notification status information comprises a current notification version; and the method further comprises: sending, in a notification flow (116, 130, 142), one or more notification messages (118, 132, 134, 144) separate from the primary message, each of the one or more notification messages being addressed to at least one of the one or more wireless devices, and wherein each of the one or more notification messages is identified by the current notification version,
Method of determining a degree of deception (1, 13, 14, 15) for an individual phishing attack (2, 11) against a person, wherein the degree of deception (1, 13, 14, 15) represents a measure of the probability of the phishing attack (2, 11) being successful, characterised in that a time taken which is necessary for preparing the phishing attack (2, 11) against the person is detected by measuring, and, using the time taken which is detected by measuring, the degree of deception (1, 13, 14, 15) is ascertained with a specified degree-of-deception calculation rule.
A wireless power feeding device (10, 30) comprising: a power transmission coil (L1, L4) for power transmission to an outer power receiving device, a resonance coil for receiving the magnetic field emitted by the power transmission coil and emitting a larger magnetic field for power transmission by passing a resonance current therethrough, a communication coil (14, 33) for data communication with the power receiving device, wherein the communication coil (14, 33) comprises: a first receiver; and a second receiver connected in series with the first receiver, wherein each induction voltage in the first receiver and the second receiver is generated in opposing directions when current passes through the power transmission coil in order to transmit power to the power receiving device. a power transmission coil (L1, L4) for power transmission to an outer power receiving device, a resonance coil for receiving the magnetic field emitted by the power transmission coil and emitting a larger magnetic field for power transmission by passing a resonance current therethrough, a communication coil (14, 33) for data communication with the power receiving device, wherein the communication coil (14, 33) comprises: a first receiver; and a second receiver connected in series with the first receiver, wherein each induction voltage in the first receiver and the second receiver is generated in opposing directions when current passes through the power transmission coil in order to transmit power to the power receiving device. a first receiver; and a second receiver connected in series with the first receiver, wherein each induction voltage in the first receiver and the second receiver is generated in opposing directions when current passes through the power transmission coil in order to transmit power to the power receiving device.
An assembly for controlling a travel direction of a self-balancing double-wheeled electrical scooter, wherein the travel direction of the self-balancing double-wheeled electrical scooter is controlled via a handle on a scooter body, the assembly comprising the handle, the scooter body and a resilient recoverable component that is provided between the scooter body and the handle, the handle is adapted for driving the resilient recoverable component to control the travel direction of the scooter, the resilient recoverable component comprises a stator, a rotor and a resilient recoverable unit, the rotor is mechanically connected to the handle in a fixed manner directly or indirectly, the stator is mechanically connected to the scooter body in a fixed manner directly or indirectly, the stator and the rotor are connected in a resilient manner via the resilient recoverable unit, the resilient recoverable component between the scooter body and the handle further comprises an angle limiting device which limits rotation of the rotor to a certain angle range, the angle limiting device comprises a limiting cover and a limiting pin, the limiting cover is mechanically connected to the stator in a fixed manner directly or indirectly, a limiting hole is provided on the limiting cover, the limiting pin is mechanically connected to the rotor in a fixed manner directly or indirectly, and the rotation of the rotor causes the limiting pin to rotate within a certain angle range inside the limiting hole on the limiting cover, characterized in that a position limiting component is provided between the stator and the rotor for preventing all movements of the rotor relative to the stator other than rotation, and the resilient recoverable unit is a rubber unit or a silicone unit injection molded between the stator and the rotor, the contact surfaces between the stator and the resilient recoverable unit and between the rotor and the resilient recoverable unit are formed as a rough surface or a dented patterned surface. characterized in that a position limiting component is provided between the stator and the rotor for preventing all movements of the rotor relative to the stator other than rotation, and the resilient recoverable unit is a rubber unit or a silicone unit injection molded between the stator and the rotor, the contact surfaces between the stator and the resilient recoverable unit and between the rotor and the resilient recoverable unit are formed as a rough surface or a dented patterned surface.
A method for receiving a signal by a station, STA, (220, 230) operable in power saving mode in a wireless communication system, the method comprising: determining a first time period by applying a scaling factor to a first time interval related to the power saving mode, switching to an awake state in order to receive a beacon frame according to the determined first time period, and receiving the beacon frame, the method being characterized in that: the scaling factor is commonly applied to a second time interval and a third time interval related to the power saving mode, when the STA (220, 230) determines a second time period from the second time interval and a third time period from the third time interval. determining a first time period by applying a scaling factor to a first time interval related to the power saving mode, switching to an awake state in order to receive a beacon frame according to the determined first time period, and receiving the beacon frame, the method being characterized in that: the scaling factor is commonly applied to a second time interval and a third time interval related to the power saving mode, when the STA (220, 230) determines a second time period from the second time interval and a third time period from the third time interval. the scaling factor is commonly applied to a second time interval and a third time interval related to the power saving mode, when the STA (220, 230) determines a second time period from the second time interval and a third time period from the third time interval.
Fan having a fan wheel, which has the following elements: suction blades for suctioning air from an axial direction; - exhaust blades for accelerating air that has passed through the suction blades in the circumferential direction, so as to exhaust the air in a radial direction; - wherein at least one suction blade is formed in one piece with an exhaust blade; - a hub and a reinforcing surface, characterized in that - the combined suction/exhaust blades (210, 230) extend radially outward from the hub to the reinforcing surface, a deflecting element for deflecting air from an active area of the suction blades to an active area of the exhaust blades is provided and the deflecting element is connected positively and/or nonpositively to at least one exhaust blade. suction blades for suctioning air from an axial direction; - exhaust blades for accelerating air that has passed through the suction blades in the circumferential direction, so as to exhaust the air in a radial direction; - wherein at least one suction blade is formed in one piece with an exhaust blade; - a hub and a reinforcing surface, characterized in that - the combined suction/exhaust blades (210, 230) extend radially outward from the hub to the reinforcing surface, a deflecting element for deflecting air from an active area of the suction blades to an active area of the exhaust blades is provided and the deflecting element is connected positively and/or nonpositively to at least one exhaust blade. - exhaust blades for accelerating air that has passed through the suction blades in the circumferential direction, so as to exhaust the air in a radial direction; - wherein at least one suction blade is formed in one piece with an exhaust blade; - a hub and a reinforcing surface, characterized in that - the combined suction/exhaust blades (210, 230) extend radially outward from the hub to the reinforcing surface, a deflecting element for deflecting air from an active area of the suction blades to an active area of the exhaust blades is provided and the deflecting element is connected positively and/or nonpositively to at least one exhaust blade.