mhurhangee/ep-ind-claims huggingface dataset:
A communication method, applied on a communications system comprising a second base station and a core-network network element, wherein the method comprises during a handover from a first base station not supporting a first security capability of a terminal to the second base station supporting the first security capability, receiving (S402, S502), by the second base station, a handover request message comprising a second security capability from the first base station, and receiving (S408, S508), by the second base station, a security capability from the core-network network element, wherein the security capability comprises the first security capability and does not comprise the second security capability, and the handover is performed via an interface between the first base station and the second base station; and sending, by the second base station, the first security capability to a third base station supporting the first security capability, to establish dual connections to the second base station and the third base station for the terminal; and wherein the first security capability is a fifth generation, 5G, security capability and the second security capability is a fourth generation, 4G, security capability, the first base station and the second base station are 4G base stations; the 4G security capability includes one or more 4G encryption algorithms, and one or more 4G integrity protection algorithms; and the 5G security capability includes one or more 5G encryption algorithms, and one or more 5G integrity protection algorithms. during a handover from a first base station not supporting a first security capability of a terminal to the second base station supporting the first security capability, receiving (S402, S502), by the second base station, a handover request message comprising a second security capability from the first base station, and receiving (S408, S508), by the second base station, a security capability from the core-network network element, wherein the security capability comprises the first security capability and does not comprise the second security capability, and the handover is performed via an interface between the first base station and the second base station; and sending, by the second base station, the first security capability to a third base station supporting the first security capability, to establish dual connections to the second base station and the third base station for the terminal; and wherein the first security capability is a fifth generation, 5G, security capability and the second security capability is a fourth generation, 4G, security capability, the first base station and the second base station are 4G base stations; the 4G security capability includes one or more 4G encryption algorithms, and one or more 4G integrity protection algorithms; and the 5G security capability includes one or more 5G encryption algorithms, and one or more 5G integrity protection algorithms.
An audio speaker enclosure comprising: an enclosure housing defining an internal volume with a speaker opening at a first end thereof, the speaker opening being configured to receive a speaker therein, the enclosure housing having an inner surface facing the internal volume and an outer surface, the enclosure further defining at least one port communicating between the internal volume and the outer surface, the at least one port extending between the inner and outer surfaces along a port length that is greater than a maximum housing thickness between the inner and outer surfaces; wherein a plurality of port walls (56,74) extend between the inner and outer surfaces, the at least one port being defined therebetween, characterised in that the at least one port includes a first port section, extending outwards from a central opening in an end plate defining the internal volume, towards a perimeter of the enclosure housing between the inner and outer surfaces (24,26) at a second end of the internal volume opposite the first end, and a second port section, extending between the inner and outer surfaces from the first port section at the perimeter, winding at least partially around a perimeter of the enclosure housing toward the outer surface. an enclosure housing defining an internal volume with a speaker opening at a first end thereof, the speaker opening being configured to receive a speaker therein, the enclosure housing having an inner surface facing the internal volume and an outer surface, the enclosure further defining at least one port communicating between the internal volume and the outer surface, the at least one port extending between the inner and outer surfaces along a port length that is greater than a maximum housing thickness between the inner and outer surfaces; wherein a plurality of port walls (56,74) extend between the inner and outer surfaces, the at least one port being defined therebetween, characterised in that the at least one port includes a first port section, extending outwards from a central opening in an end plate defining the internal volume, towards a perimeter of the enclosure housing between the inner and outer surfaces (24,26) at a second end of the internal volume opposite the first end, and a second port section, extending between the inner and outer surfaces from the first port section at the perimeter, winding at least partially around a perimeter of the enclosure housing toward the outer surface.
Method for setting up a sensor network having a plurality of sensor nodes, wherein sensor nodes can be connected to one another for the purpose of transmitting sensor data to a central reception node, and wherein each sensor node stores time information relating to other adjacent sensor nodes in the reception area of a sensor node, on the basis of which information a sensor node determines when it is connected to another sensor node, wherein the time information determines when a particular sensor node transmits at least one synchronization message and when another sensor node must open its reception window in order to receive such a synchronization message, and, after emitting at least one synchronization message, the transmitting sensor node changes to reception for a period in order to be able to receive messages within this period which are emitted by surrounding sensor nodes wishing to forward data to that sensor node which transmitted the at least one synchronization message, characterized in that initial time information is formed in a sensor node to be newly installed from information from a mobile installation device, which information is transmitted to the new sensor node during the installation of the latter, wherein the time information in the installation device is automatically adapted on the basis of the reception of synchronization messages from sensor nodes which are already installed in the sensor network and are in the reception area of the installation device, wherein the installation device receives the time information from sensor nodes which are already installed on account of the reception by the latter and this time information is transmitted to the sensor node to be newly installed without the latter having to become active in an energy-consuming manner in order to itself generate the information from the reception.
A card manufacturing method, comprising: a step of feeding a reference sheet serving as a reference for alignment; a step of feeding a first continuous sheet having a plurality of patterns repeatedly printed on the first continuous sheet; a step of detecting a position of each one of the repeatedly printed patterns by detection means (5; S0, S1, S2); a first adjustment step of adjusting such that the patterns are at predetermined positions with respect to the reference sheet by controlling a feeding speed of the first continuous sheet according to a detection result on the positions of the patterns; a step of producing a laminated sheet by laminating the first continuous sheet on the reference sheet; and a step of producing a card by cutting the laminated sheet after adjusting a cutting position according to the positions of the patterns, the first adjustment step being performed every time the number of the patterns reaches a predeterminded number (n) greater than 1. a step of feeding a reference sheet serving as a reference for alignment; a step of feeding a first continuous sheet having a plurality of patterns repeatedly printed on the first continuous sheet; a step of detecting a position of each one of the repeatedly printed patterns by detection means (5; S0, S1, S2); a first adjustment step of adjusting such that the patterns are at predetermined positions with respect to the reference sheet by controlling a feeding speed of the first continuous sheet according to a detection result on the positions of the patterns; a step of producing a laminated sheet by laminating the first continuous sheet on the reference sheet; and a step of producing a card by cutting the laminated sheet after adjusting a cutting position according to the positions of the patterns, the first adjustment step being performed every time the number of the patterns reaches a predeterminded number (n) greater than 1.
A receiver in canal, RIC, device comprising a hearing device cable comprising: a body portion extending between a first end region and a second end region along a tube centerline, wherein the body portion comprises a first radial portion proximate the first end region and a second radial portion proximate the second end region, wherein the tube centerline lies along an x-y plane between the first and second end regions in a relaxed state, when the hearing device cable is not positioned in an ear of a user, wherein the body portion defines an S-shape such that the first radial portion extends along an arc that curves in a direction opposite an arc along which the second radial portion extends, and wherein the tube centerline does not only extend along the x-y plane in a deflected state, when the hearing device cable is positioned in the ear of the user. a body portion extending between a first end region and a second end region along a tube centerline, wherein the body portion comprises a first radial portion proximate the first end region and a second radial portion proximate the second end region, wherein the tube centerline lies along an x-y plane between the first and second end regions in a relaxed state, when the hearing device cable is not positioned in an ear of a user, wherein the body portion defines an S-shape such that the first radial portion extends along an arc that curves in a direction opposite an arc along which the second radial portion extends, and wherein the tube centerline does not only extend along the x-y plane in a deflected state, when the hearing device cable is positioned in the ear of the user.
An image sensor comprising: a sensor substrate comprising a plurality of light sensing cells a spacer layer provided on the sensor substrate, the spacer layer being transparent; and a color separation lens array provided on the spacer layer, wherein the color separation lens array comprises: a first lens layer comprising a first nanopost having a sub-wavelength shape dimension and a first peripheral material provided around the first nanopost, wherein the first nanopost and the first peripheral material having different refraction indexes; and characterised in that a first chemical mechanical polishing stop layer provided on an entire upper surface of the first peripheral material, wherein the first CMP stop layer is not provided on an upper surface of the first nanopost. a sensor substrate comprising a plurality of light sensing cells a spacer layer provided on the sensor substrate, the spacer layer being transparent; and a color separation lens array provided on the spacer layer, wherein the color separation lens array comprises: a first lens layer comprising a first nanopost having a sub-wavelength shape dimension and a first peripheral material provided around the first nanopost, wherein the first nanopost and the first peripheral material having different refraction indexes; and characterised in that a first chemical mechanical polishing stop layer provided on an entire upper surface of the first peripheral material, wherein the first CMP stop layer is not provided on an upper surface of the first nanopost. a first lens layer comprising a first nanopost having a sub-wavelength shape dimension and a first peripheral material provided around the first nanopost, wherein the first nanopost and the first peripheral material having different refraction indexes; and characterised in that a first chemical mechanical polishing stop layer provided on an entire upper surface of the first peripheral material, wherein the first CMP stop layer is not provided on an upper surface of the first nanopost.
A method in a mobile station (512, 514, 516, 518) of a wireless network, the method comprising: determining a received signal quality for at least one base station (522, 524, 526) of the wireless network; selecting a first base station of the at least one base station based on the received signal quality; determining an identity of the first base station; determining a first set of periodic beacon windows (712, 714) based on the identity of the first base station; and scanning for a device-to-device beacon transmission during a beacon window of the first set of periodic beacon windows. determining a received signal quality for at least one base station (522, 524, 526) of the wireless network; selecting a first base station of the at least one base station based on the received signal quality; determining an identity of the first base station; determining a first set of periodic beacon windows (712, 714) based on the identity of the first base station; and scanning for a device-to-device beacon transmission during a beacon window of the first set of periodic beacon windows.
Method for determining the protrusion of bearing shells having the following steps: a) clamping a bearing, shell at several bearing points; b) applying one or more test forces (F, x) to at least one point of the bearing shell, so that the bearing shell is elastically deformed radially; c) measuring the radial deformation of the bearing shell at one or more measuring points of the bearing shell; d) determining the protrusion (S N) from the measured deformation. a) clamping a bearing, shell at several bearing points; b) applying one or more test forces (F, x) to at least one point of the bearing shell, so that the bearing shell is elastically deformed radially; c) measuring the radial deformation of the bearing shell at one or more measuring points of the bearing shell; d) determining the protrusion (S N) from the measured deformation.
An ultra-large area scanning reactive ion etching machine, comprising: an injection chamber configured to inject a sample, withdraw the sample and buffer an etching process; an etching reaction chamber downstream of the injection chamber, and the etching reaction chamber is an reaction cavity configured to etch the sample; a transition chamber downstream of the etching reaction chamber and configured to buffer the etching process; an etching ion generation chamber in communication with the etching reaction chamber and configured to generate etching ions or plasma, and introduce the etching ions or plasma to the etching reaction chamber, wherein the etching reaction chamber is connected to the injection chamber and the transition chamber through channels (105-1, 105-2); wherein the sample is placed on a sample holder which is configured to move among the injection chamber, the etching reaction chamber and the transition chamber in a scanning direction, and the sample is etched by using the etching ions or plasma in the etching reaction chamber; and wherein a size of the channel in a horizontal direction perpendicular to the scanning direction is configured to allow the sample to pass through, and is much smaller than a size of the reaction chamber in the horizontal direction perpendicular to the scanning direction. an injection chamber configured to inject a sample, withdraw the sample and buffer an etching process; an etching reaction chamber downstream of the injection chamber, and the etching reaction chamber is an reaction cavity configured to etch the sample; a transition chamber downstream of the etching reaction chamber and configured to buffer the etching process; an etching ion generation chamber in communication with the etching reaction chamber and configured to generate etching ions or plasma, and introduce the etching ions or plasma to the etching reaction chamber, wherein the etching reaction chamber is connected to the injection chamber and the transition chamber through channels (105-1, 105-2); wherein the sample is placed on a sample holder which is configured to move among the injection chamber, the etching reaction chamber and the transition chamber in a scanning direction, and the sample is etched by using the etching ions or plasma in the etching reaction chamber; and wherein a size of the channel in a horizontal direction perpendicular to the scanning direction is configured to allow the sample to pass through, and is much smaller than a size of the reaction chamber in the horizontal direction perpendicular to the scanning direction.
Power tool clamping device for clamping a sheet-type working tool to a tool receiver that is mounted in an eccentrically movable manner, comprising at least one clamping unit, which has at least one movably mounted clamping element, comprising at least one slotted link movement unit, which is provided to move the clamping element for the purpose of generating a tension in the sheet-type working tool, in at least one operating state, characterized in that the clamping unit has a further clamping element, which is mounted so as to be movable relative to the clamping element.
Combination of a profile cylinder with associated profile cylinder key with a key bow and with a key shaft starting from the key bow, and with a coupling element which is arranged so that it can be moved back and forth on a key shaft, and which, in the position of use of the profile cylinder key inserted in the associated profile cylinder, comprises two contact areas (17, 18) on the locking cylinder side, which are accessible from the outside of the key shaft, and which can be acted on in the sense of the back and forth movements of the coupling element, wherein the coupling element comprises, within the movement area of the back and forth movements, at least one access authorization position, which is defined by predetermined positions of the contact areas (17, 18) with respect to the rotation surface of the locking core in the profile cylinder, and an associated profile cylinder which comprises at least two coupling tumblers (28, 29) of which at least one comprises a core pin and a housing pin, wherein the core pin and the housing pin fit in bores of the locking core, on the one hand, and of the housing of the profile cylinder, on the other hand, which extend transversely to the broad sides of the inserted key shaft and which are aligned with one another in the key insertion position of the locking core, and wherein the core pin and the housing pin, in the access authorization position of the profile cylinder key, lie with their respective separation surface between the core pin and the housing pin in the rotation surface of the locking core in the profile cylinder, wherein the coupling element is mounted swivelably on a rotation axle which extends parallel to the longitudinal direction of the key shaft, and wherein, on the coupling element, the two coupling tumblers (28, 29) engage, characterized in that one of the two coupling tumblers (28, 29) is acted on by a spring in the direction of the locking core, and the other one is not spring-loaded, in that the segment of the housing pin pushing the core pin into the locking core engages in a recess in the locking core that receives the core pin, the cross section of which is greater than the cross section of the segment of the housing pin, and the segment of the housing pin has a smaller diameter than the head of the core pin adjoining it.
A process for preparing a compound of the formula 1 wherein each of R 1 and R 2 is independently selected from the group consisting of H, F, Cl, Br, I, C 1 -C 6 alkyl and trifluoromethyl, R 3 is H or C 1 -C 6 alkyl, and R 4 is H or -C C 1 -C 6 alkyl; comprising a. contacting a compound of the formula wherein each of R 1 and R 2 is independently selected from the group consisting of H, F, Cl, Br, I, C 1 -C 6 alkyl and trifluoromethyl, R 3 is H or C 1 -C 6 alkyl, and R 4 is H or -C C 1 -C 6 alkyl; with a 3-halopyridine in the presence of a copper catalyst, a ligand, a base, a solvent and optionally an additive; wherein the ligand is selected from the group consisting of triethylenetetramine (TETA), N, N '-bis(2-hydroxyethyl)ethylenediamine (BHEEA), 8-hydroxyquinoline, and dimethylethane-1,2-diamine (DMEDA),, and the ligand is used in 0.08 to 0.2 molar equivalents compared to the pyrazole starting material or, when DMEDA is used as ligand in the presence of an additive, in 0.05 to 0.2 molar equivalents of DMEDA compared to the pyrazole starting material. a. contacting a compound of the formula wherein each of R 1 and R 2 is independently selected from the group consisting of H, F, Cl, Br, I, C 1 -C 6 alkyl and trifluoromethyl, R 3 is H or C 1 -C 6 alkyl, and R 4 is H or -C C 1 -C 6 alkyl; with a 3-halopyridine in the presence of a copper catalyst, a ligand, a base, a solvent and optionally an additive; wherein the ligand is selected from the group consisting of triethylenetetramine (TETA), N, N '-bis(2-hydroxyethyl)ethylenediamine (BHEEA), 8-hydroxyquinoline, and dimethylethane-1,2-diamine (DMEDA),, and the ligand is used in 0.08 to 0.2 molar equivalents compared to the pyrazole starting material or, when DMEDA is used as ligand in the presence of an additive, in 0.05 to 0.2 molar equivalents of DMEDA compared to the pyrazole starting material.
A driving assembly for a lever-type door lock, adapted to be arranged in an installation hole to drive a latch operating body, comprising a mounting module formed in a truncated disc shape and having at least one driving plate therein; and a motor unit mounted on the truncated area of the mounting module; wherein the mounting module has a round outer circumferential surface so as to have a circular shape as a whole in a state where the motor unit is mounted on the upper portion thereof. a mounting module formed in a truncated disc shape and having at least one driving plate therein; and a motor unit mounted on the truncated area of the mounting module; wherein the mounting module has a round outer circumferential surface so as to have a circular shape as a whole in a state where the motor unit is mounted on the upper portion thereof.