mhurhangee/ep-ind-claims huggingface dataset:
Robot vacuum cleaner comprising: - a main body comprising a lower face which is configured to be oriented towards a surface to be cleaned, a suctioning opening opening into the lower face of the main body and extending transversally in a main movement direction of the robot vacuum cleaner, and a receiving housing fluidically connected to the suctioning opening, - a rotary cleaning brush rotatably movably mounted in the receiving housing about an axis of rotation which extends transversally in the main movement direction of the robot vacuum cleaner, and - a first lateral cleaning element mounted on a front part of the main body and located in the vicinity of a first lateral edge (3.11) of the main body, the first lateral cleaning element comprising a first cleaning part which is flexible, wherein the first lateral cleaning element is fixed with respect to the main body, and in that the first cleaning part is configured to orient waste, which comes into contact with the first cleaning part when the robot vacuum cleaner moves in the main movement direction, towards the suctioning opening, characterised in that the first cleaning part has an inclination, with respect to the horizontal, which varies along the first cleaning part. - a main body comprising a lower face which is configured to be oriented towards a surface to be cleaned, a suctioning opening opening into the lower face of the main body and extending transversally in a main movement direction of the robot vacuum cleaner, and a receiving housing fluidically connected to the suctioning opening, - a rotary cleaning brush rotatably movably mounted in the receiving housing about an axis of rotation which extends transversally in the main movement direction of the robot vacuum cleaner, and - a first lateral cleaning element mounted on a front part of the main body and located in the vicinity of a first lateral edge (3.11) of the main body, the first lateral cleaning element comprising a first cleaning part which is flexible, wherein the first lateral cleaning element is fixed with respect to the main body, and in that the first cleaning part is configured to orient waste, which comes into contact with the first cleaning part when the robot vacuum cleaner moves in the main movement direction, towards the suctioning opening,
A bone plate system, comprising: a bone plate extending along a longitudinal axis, having a bone facing side, a front side being arranged substantially opposite to and facing away from the bone facing side, and at least one insert receiving portion extending perpendicular to the longitudinal axis, wherein the insert receiving portion comprises an abutment surface connected to the bone facing side, the bone plate system further comprising at least one insert defining a contacting region for contacting an adjacent bone surface and being releasably receivable in said insert receiving portion, wherein the insert is configured to be insertable into the insert receiving portion from the bone facing side, characterized in that the contacting region is configured to exceed the abutment surface defining the largest cross-section of the insert receiving portion. a bone plate extending along a longitudinal axis, having a bone facing side, a front side being arranged substantially opposite to and facing away from the bone facing side, and at least one insert receiving portion extending perpendicular to the longitudinal axis, wherein the insert receiving portion comprises an abutment surface connected to the bone facing side, the bone plate system further comprising at least one insert defining a contacting region for contacting an adjacent bone surface and being releasably receivable in said insert receiving portion, wherein the insert is configured to be insertable into the insert receiving portion from the bone facing side, characterized in that the contacting region is configured to exceed the abutment surface defining the largest cross-section of the insert receiving portion.
Cable drive device of an adjustment system, in particular of a window lifter, of a motor vehicle, having an actuating drive and a cable drive housing in which a cable drum which is coupled, or able to be coupled, to the actuating drive and rotatable about a rotation axis and onto which a traction cable is wound, or able to be wound, is received; - wherein the cable drum for receiving the traction cable has a drum casing having a helical or spiral cable groove which on at least one end side (10b, 10c) of the cable drum opens into a nipple chamber (23, 25) for receiving a cable nipple (24a, 24b) fastened to the end side of the traction cable; - wherein the nipple chamber (23, 25) has a chamber opening as well as chamber walls that run in the axial direction and are mutually spaced apart in the radial direction; - wherein the nipple chamber (23, 25) on at least one of the chamber walls has a delimiting element, the cable nipple (24a, 24b) when introduced into the nipple chamber (23, 25) by way of the chamber opening engaging below said delimiting element; and - wherein the available width (w) between the chamber walls in the region of the delimiting element is smaller than the diameter or than the spacing between opposite nipple faces of the cable nipple (24a, 24b); and - characterized in that the delimiting element in the region of the chamber opening in the tangential direction subdivides the nipple chamber (23, 25) into two chamber regions of which the tangential extent (L T1, L T2) is smaller than the length (Ls) of the cable nipple (24a, 24b). - wherein the cable drum for receiving the traction cable has a drum casing having a helical or spiral cable groove which on at least one end side (10b, 10c) of the cable drum opens into a nipple chamber (23, 25) for receiving a cable nipple (24a, 24b) fastened to the end side of the traction cable; - wherein the nipple chamber (23, 25) has a chamber opening as well as chamber walls that run in the axial direction and are mutually spaced apart in the radial direction; - wherein the nipple chamber (23, 25) on at least one of the chamber walls has a delimiting element, the cable nipple (24a, 24b) when introduced into the nipple chamber (23, 25) by way of the chamber opening engaging below said delimiting element; and - wherein the available width (w) between the chamber walls in the region of the delimiting element is smaller than the diameter or than the spacing between opposite nipple faces of the cable nipple (24a, 24b); and - characterized in that
A method for checking a mechanical stress acting on a coil which is configured as an induction coil or transformer coil, the method comprising: detecting one or more measurement variables which are dependent on the mechanical stress when an electrical excitation signal is applied to the coil and which comprise vibration information about mechanical vibrations of the coil when the electrical excitation signal is applied, characterized in that the detection of the measurement variables comprises detecting the vibration information on the basis of airborne sound and/or structure-borne sound generated by the coil, and wherein the vibration information comprises amplitudes of a fundamental tone and/or one or more overtones and/or one or more undertones of the mechanical vibration; and determining the mechanical stress acting on the coil on the basis of the one or more detected measurement variables, wherein the determination of the mechanical stress comprises determining the mechanical stress on the basis of a ratio of the amplitudes. detecting one or more measurement variables which are dependent on the mechanical stress when an electrical excitation signal is applied to the coil and which comprise vibration information about mechanical vibrations of the coil when the electrical excitation signal is applied, characterized in that the detection of the measurement variables comprises detecting the vibration information on the basis of airborne sound and/or structure-borne sound generated by the coil, and wherein the vibration information comprises amplitudes of a fundamental tone and/or one or more overtones and/or one or more undertones of the mechanical vibration; and determining the mechanical stress acting on the coil on the basis of the one or more detected measurement variables, wherein the determination of the mechanical stress comprises determining the mechanical stress on the basis of a ratio of the amplitudes.
A method for determining a substitution temperature (Ts) for substituting a coolant liquid at a measured temperature (Tm) in order to control a heat engine, said heat engine being associated with a cooling circuit in relation with an additional heater, characterized in that, when said additional heater has been used prior to the starting of the heat engine, said method comprises: - a step of calculating said substitution temperature (Ts) including: a step of calculating a pressure difference (ΔT) from maps (C1, C2) integrating the two heating profiles (P1, P2) established for at least two usage temperatures of said additional heater and of a weighting coefficient (Cp) permitting the interpolation of the heating profiles (P1, P2), and a step of subtraction of said difference (ΔT) to said measured temperature (Tm), and - a step of transmission to an engine computer of said substitution temperature (Ts) to ensure said control of the heat engine. - a step of calculating said substitution temperature (Ts) including: a step of calculating a pressure difference (ΔT) from maps (C1, C2) integrating the two heating profiles (P1, P2) established for at least two usage temperatures of said additional heater and of a weighting coefficient (Cp) permitting the interpolation of the heating profiles (P1, P2), and a step of subtraction of said difference (ΔT) to said measured temperature (Tm), and a step of calculating a pressure difference (ΔT) from maps (C1, C2) integrating the two heating profiles (P1, P2) established for at least two usage temperatures of said additional heater and of a weighting coefficient (Cp) permitting the interpolation of the heating profiles (P1, P2), and a step of subtraction of said difference (ΔT) to said measured temperature (Tm), and - a step of transmission to an engine computer of said substitution temperature (Ts) to ensure said control of the heat engine.
A method for processing data generated by a synthetic aperture imaging system, comprising the step of: - receiving raw data representative of electromagnetic signals reflected by a target area to be imaged; and characterized in that said method further includes the steps of: - receiving a parameter change for said synthetic aperture imaging system, said change having been performed before illumination of the target area to be imaged, said receiving said parameter change comprising receiving a parameter change causing a variation of an interference pattern parameter for said synthetic aperture imaging system; - digitally correcting said raw data by determining a scaling factor in accordance with the variation of the interference pattern parameter and applying the scaling factor to the raw data, thereby compensating for said parameter change in order to obtain corrected data; and - generating an image of said target and using said corrected data, said generating said image comprising: - generating an incident light; - modulating said incident light in accordance with said corrected data, thereby obtaining a modulated light; and - optically processing said modulated light, thereby obtaining said image of said target area. - receiving raw data representative of electromagnetic signals reflected by a target area to be imaged; and - receiving a parameter change for said synthetic aperture imaging system, said change having been performed before illumination of the target area to be imaged, said receiving said parameter change comprising receiving a parameter change causing a variation of an interference pattern parameter for said synthetic aperture imaging system; - digitally correcting said raw data by determining a scaling factor in accordance with the variation of the interference pattern parameter and applying the scaling factor to the raw data, thereby compensating for said parameter change in order to obtain corrected data; and - generating an image of said target and using said corrected data, said generating said image comprising: - generating an incident light; - modulating said incident light in accordance with said corrected data, thereby obtaining a modulated light; and - optically processing said modulated light, thereby obtaining said image of said target area.
A method for scanning by a station, STA, the method comprising: transmitting, by the STA, a first short probe request frame via a first channel to determine whether a target access point, AP, exists in the first channel; transmitting, by the STA, a second short probe request frame to the target AP via a second channel when a first acknowledgement, ACK, as a response to the first short probe request frame is not received via the first channel; receiving, by the STA, a second ACK as a response to the second short probe request frame when the target AP that operates in the second channel exists; unicasting, by the STA, a probe request frame to the target AP via the second channel, wherein the first short probe request frame and the second short probe request frame are transmitted before the probe request frame is transmitted; determining, by the STA, whether a third ACK for the probe request frame is received by processing an ACK transmitted via the second channel within a ACK transmission time; monitoring, by the STA, a probe response frame as a response to the probe request frame on the second channel if the third ACK is received within the ACK transmission time; and switching, by the STA, a scanning channel from the second channel to a third channel regardless of a clear channel assessment, CCA, level detected during the ACK transmission time when a timer for the ACK transmission time expires if the third ACK is not received within the ACK transmission time. transmitting, by the STA, a first short probe request frame via a first channel to determine whether a target access point, AP, exists in the first channel; transmitting, by the STA, a second short probe request frame to the target AP via a second channel when a first acknowledgement, ACK, as a response to the first short probe request frame is not received via the first channel; receiving, by the STA, a second ACK as a response to the second short probe request frame when the target AP that operates in the second channel exists; unicasting, by the STA, a probe request frame to the target AP via the second channel, wherein the first short probe request frame and the second short probe request frame are transmitted before the probe request frame is transmitted; determining, by the STA, whether a third ACK for the probe request frame is received by processing an ACK transmitted via the second channel within a ACK transmission time; monitoring, by the STA, a probe response frame as a response to the probe request frame on the second channel if the third ACK is received within the ACK transmission time; and switching, by the STA, a scanning channel from the second channel to a third channel regardless of a clear channel assessment, CCA, level detected during the ACK transmission time when a timer for the ACK transmission time expires if the third ACK is not received within the ACK transmission time.
A semiconductor device, comprising: a substrate; a die, mounted on the substrate; and a plurality of conductive traces (190 1, 190 2, 190 3, 190 n, 190 x), routed on the substrate and connected to the die, wherein the conductive traces (190 1, 190 2, 190 3, 190 n, 190 x) at least comprise a plurality of first conductive traces and a plurality of second conductive traces, the second conductive traces are coupled to a predetermined voltage for providing a shielding pattern, wherein the first conductive traces and the second conductive traces are disposed on the substrate in a substantially interlaced pattern; wherein the conductive traces (190 1, 190 2, 190 3, 190 n, 190 x) are configured to provide an interface for interfacing with an external device and the die is a controller device for controlling access to the external device, and wherein the die is capable of operating in at least a first mode and a second mode according to a type of the external device coupled thereto; and wherein when the die is configured to operate in the first mode, the first conductive traces are configured to perform bidirectional signal transmission, and when the die is configured to operate in the second mode, the first conductive traces are configured to perform unidirectional signal transmission. a substrate; a die, mounted on the substrate; and a plurality of conductive traces (190 1, 190 2, 190 3, 190 n, 190 x), routed on the substrate and connected to the die, wherein the conductive traces (190 1, 190 2, 190 3, 190 n, 190 x) at least comprise a plurality of first conductive traces and a plurality of second conductive traces, the second conductive traces are coupled to a predetermined voltage for providing a shielding pattern, wherein the first conductive traces and the second conductive traces are disposed on the substrate in a substantially interlaced pattern; wherein the conductive traces (190 1, 190 2, 190 3, 190 n, 190 x) are configured to provide an interface for interfacing with an external device and the die is a controller device for controlling access to the external device, and wherein the die is capable of operating in at least a first mode and a second mode according to a type of the external device coupled thereto; and wherein when the die is configured to operate in the first mode, the first conductive traces are configured to perform bidirectional signal transmission, and when the die is configured to operate in the second mode, the first conductive traces are configured to perform unidirectional signal transmission.
A method for wireless communication at a relay node, the method comprising: establishing (420; 1005) a control plane connection between the relay node and a base station, wherein establishing the control plane connection comprises receiving from the base station a first network identifier for the relay node; receiving (425; 1010), via the control plane connection, a relay configuration from the base station, the relay configuration indicating that the relay node is to perform relay operations for a set of one or more user equipment, UEs; monitoring (430; 1015) grants associated with the set of one or more UEs based at least in part on the relay configuration, each UE comprising a network identifier that is different from the first network identifier; determining that at least one of communications between the base station and the set of one or more UEs is received with a corresponding type of reference signal used for decoding the at least one communication; determining whether to relay or refrain from relaying the at least one communication between the base station and the set of one or more UEs based at least in part on the corresponding type of reference signal; and relaying (435; 1020) the communications between the base station and the set of one or more UEs according to the monitoring and the determining. establishing (420; 1005) a control plane connection between the relay node and a base station, wherein establishing the control plane connection comprises receiving from the base station a first network identifier for the relay node; receiving (425; 1010), via the control plane connection, a relay configuration from the base station, the relay configuration indicating that the relay node is to perform relay operations for a set of one or more user equipment, UEs; monitoring (430; 1015) grants associated with the set of one or more UEs based at least in part on the relay configuration, each UE comprising a network identifier that is different from the first network identifier; determining that at least one of communications between the base station and the set of one or more UEs is received with a corresponding type of reference signal used for decoding the at least one communication; determining whether to relay or refrain from relaying the at least one communication between the base station and the set of one or more UEs based at least in part on the corresponding type of reference signal; and relaying (435; 1020) the communications between the base station and the set of one or more UEs according to the monitoring and the determining.
A vehicle side portion structure comprising: a pillar outer panel that is disposed at a vehicle transverse direction outer side at a pillar that extends along a vehicle vertical direction; a pillar outer reinforcement that is disposed at a vehicle transverse direction inner side of the pillar outer panel and that is divided along the vehicle vertical direction, and at which is provided a joined portion at which divisional members are joined so as to be superposed one on another; and a reinforcing member that is disposed at a vehicle transverse direction inner side of the pillar outer reinforcement, and that is joined to the pillar outer reinforcement so as to span over the joined portion, characterized in that the pillar outer panel comprises a weak portion that is formed at a lower side of the lower hinge mounting portion and is set to have lower rigidity than other portions of the pillar outer panel, wherein the lower edge portion of the reinforcing member is set so as to be further toward a vehicle vertical direction upper side than the weak portion. a pillar outer panel that is disposed at a vehicle transverse direction outer side at a pillar that extends along a vehicle vertical direction; a pillar outer reinforcement that is disposed at a vehicle transverse direction inner side of the pillar outer panel and that is divided along the vehicle vertical direction, and at which is provided a joined portion at which divisional members are joined so as to be superposed one on another; and a reinforcing member that is disposed at a vehicle transverse direction inner side of the pillar outer reinforcement, and that is joined to the pillar outer reinforcement so as to span over the joined portion, characterized in that the pillar outer panel comprises a weak portion that is formed at a lower side of the lower hinge mounting portion and is set to have lower rigidity than other portions of the pillar outer panel, wherein the lower edge portion of the reinforcing member is set so as to be further toward a vehicle vertical direction upper side than the weak portion.
A water-developable photosensitive resin composition for flexographic printing, said composition containing at least a polyamide and/or a polyamide block copolymer (a), a cross-linking agent having one or more unsaturated group (s) (b), a photo-polymerization initiator (c), diethylene glycol and/or 1,2-butanediol as a plasticizer, characterized in that the composition further comprises a fatty acid ester (d), wherein the fatty acid ester (d) has two or more hydroxyl groups and 24 or 25 carbon atoms in a molecule, wherein the fatty acid ester (d) is a fatty acid ester of a compound selected from fatty acids having a number of carbon atoms of 12 to 22, wherein a content of the fatty acid ester (d) in the photosensitive resin composition is 0.2 to 6% by weight,
A tension leg platform structure for wind turbines, the tension leg platform structure comprising a buoyant structure, a platform and at least one anchoring tendon for connecting the platform to a seabed, the anchoring tendon comprising at least a hybrid structure formed of at least a first pre-stressed structure and a second, different pre-stressed structure associated therewith, characterized in that the anchoring tendon comprises tendon segments made of different structural and/or mechanical characteristics that vary depending on the sea depth.