mhurhangee/ep-ind-claims huggingface dataset:
A method for providing an interface between a universal interface circuit card, UICC, and a processor, included in an access terminal, that supports asynchronous command processing by the UICC, comprising: receiving a first command from the processor, wherein the first command is a complex command with a first processing time; sending an initial response to the first command to the processor, wherein the initial response includes a token associated with the first command; processing the first command for the first processing time; receiving at least one additional command from the processor, wherein each of the at least one additional command has a processing time shorter than the first processing time; completing processing of the first command; completing processing of a current one of the at least one additional command, wherein the current one of the at least one additional command is a command that is processing before, during, or after completion of the processing of the first command; and sending a response to the current one of the at least one additional command to the processor, wherein the response includes the token. receiving a first command from the processor, wherein the first command is a complex command with a first processing time; sending an initial response to the first command to the processor, wherein the initial response includes a token associated with the first command; processing the first command for the first processing time; receiving at least one additional command from the processor, wherein each of the at least one additional command has a processing time shorter than the first processing time; completing processing of the first command; completing processing of a current one of the at least one additional command, wherein the current one of the at least one additional command is a command that is processing before, during, or after completion of the processing of the first command; and sending a response to the current one of the at least one additional command to the processor, wherein the response includes the token.
A method in a wireless device connected to a first radio access network arranged to operate according to a first radio access technology of enabling handover to a second radio access network arranged to operate according to a second radio access technology, the method comprising: - receiving from a radio access node in the first radio access network a handover prepare message, the handover prepare message including information about one or more second radio access networks selected for handover preparation; - preparing the wireless device for handover to the one or more second radio access networks selected for handover, wherein preparing includes preparation signaling with at least one access point of each of the one or more second radio access networks; - compiling a preparation concluded message, wherein the preparation concluded message includes one or more access point identifiers identifying the at least one access point of each of the one or more second radio access networks to which wireless device has prepared for handover, and - sending the preparation concluded message to the radio access node in the first radio access network, characterized in that the method further comprises: - receiving a handover message from a radio access node of the first radio access network, the handover message including an access point identifier selected from the at least one access point identifiers sent from the wireless device in the preparation concluded message, - enabling user plane transmission by retrieving an IP-address to the access point identified by the access point identifier and - initiating user plane transmission to the access point of second radio access network. - receiving from a radio access node in the first radio access network a handover prepare message, the handover prepare message including information about one or more second radio access networks selected for handover preparation; - preparing the wireless device for handover to the one or more second radio access networks selected for handover, wherein preparing includes preparation signaling with at least one access point of each of the one or more second radio access networks; - compiling a preparation concluded message, wherein the preparation concluded message includes one or more access point identifiers identifying the at least one access point of each of the one or more second radio access networks to which wireless device has prepared for handover, and - sending the preparation concluded message to the radio access node in the first radio access network, - receiving a handover message from a radio access node of the first radio access network, the handover message including an access point identifier selected from the at least one access point identifiers sent from the wireless device in the preparation concluded message, - enabling user plane transmission by retrieving an IP-address to the access point identified by the access point identifier and - initiating user plane transmission to the access point of second radio access network.
An apparatus for closing off an opening above, below, or between electronic equipment in a rack, the rack comprising a pair of equipment rails, the electronic equipment mounted to the equipment rails, the apparatus comprising: a base; a roller shade rotatably connected to the base, the roller shade having a free end, the free end extending from the base when the roller shade is rotated; and a handle connected to the free end of the roller shade, wherein the base is removably connected to the pair of equipment rails at a first position, and wherein the handle is removably connected to the pair of equipment rails at a second position spaced apart from the first position such that the free end of the roller shade is extended to close off the opening in the rack. a base; a roller shade rotatably connected to the base, the roller shade having a free end, the free end extending from the base when the roller shade is rotated; and a handle connected to the free end of the roller shade, wherein the base is removably connected to the pair of equipment rails at a first position, and wherein the handle is removably connected to the pair of equipment rails at a second position spaced apart from the first position such that the free end of the roller shade is extended to close off the opening in the rack.
A compound selected from compounds having the following formula: wherein a, b and c respectively denote, independently from each other, a single bond or a double bond, with the proviso that at least one of a, b and c represents a double bond, and with the proviso that if a is single bond and b is double bond R 2 is not H; R 1 is hydrogen or C 1 to C 6 alkyl; R 2 is OR 5, wherein R 5 is hydrogen or C 1 to C 6 straight chain or branched alkyl; R 3 is, in case of c being a single bond, hydrogen or C 1 to C 6 alkyl, or in case of c being a double bond, CHR 5, wherein R 5 is the same as defined before; R 4 is hydrogen, C 1 to C 6 alkyl, phenyl unsubstituted or substituted by C 1 to C 6 alkyl, COR 6 acyl group (R 6 being hydrogen; C 1 to C 6 straight chain or branched alkyl; phenyl or benzoyl respectively unsubstituted or substituted by C 1 to C 6 alkyl), or any group leading to hydroxyl upon biological metabolization or chemical deprotection; and salts thereof; for use in prophylaxis and/or treatment of prostate carcinoma.
Aiming device for aligning a surgical drilling instrument, with: a pointer mechanism for arranging at a location on a bone where a drilled hole that is to be formed is intended to emerge; a guide mechanism for guiding the surgical drilling instrument; an adjustable connection mechanism (50, 70, 80) with a first end, which is connected to the guide mechanism, and a second end, which is connected to the pointer mechanism, wherein the adjustable connection mechanism comprises a first component, a second component and a locking mechanism, wherein the second component is movable relative to the first component along a predetermined path, characterized in that the first component is elastically deformable by the locking mechanism in such a way that the second component is lockable relative to the first component by clamping. a pointer mechanism for arranging at a location on a bone where a drilled hole that is to be formed is intended to emerge; a guide mechanism for guiding the surgical drilling instrument; an adjustable connection mechanism (50, 70, 80) with a first end, which is connected to the guide mechanism, and a second end, which is connected to the pointer mechanism, wherein the adjustable connection mechanism comprises a first component, a second component and a locking mechanism, wherein the second component is movable relative to the first component along a predetermined path, characterized in that the first component is elastically deformable by the locking mechanism in such a way that the second component is lockable relative to the first component by clamping.
Instrument for drilling dental root canals comprising a tapered rod having over at least a part of its length, called the active part, a polygonal cross-section forming at least two cutting edges (5a, 5b; 52, 54), said active part terminating by a point and being defined by an envelope of a cylindrical or conical shape, the longitudinal axis of which coincides with the axis of rotation of the instrument, said active part comprising a first portion extending from the point and a second portion extending following the first portion towards the rear of the active part; said instrument being characterised by the fact that any cross-section (4a; 4'a; 40a) of the first portion has a centre of mass (ma; m'a m 40 a) located on the axis of rotation and that said at least two cutting edges (5a, 5b; 52, 54) defined by said cross-section (4a; 4'a; 40a) are located on the envelope; and by the fact that at least one cross-section (4b; 4'b; 401b) of the second portion has a centre of mass (mb; m'b m 401 b) offset with respect to the axis of rotation and at least one cutting edge (5a; 52, 54) defined by said cross-section (4b; 4'b; 401b) is located set back within the envelope.
A method for separating a differentially methylated nucleic acid of interest from other nucleic acids, comprising: providing a gel having immobilized binding sites that bind the differentially methylated nucleic acid of interest with a binding energy greater than the binding energy of other nucleic acids, wherein the differentially methylated nucleic acid has a different binding energy to the binding sites relative to an unmethylated sequence; and applying a time-varying temperature gradient and a time-varying electric driving field to the gel, thereby separating the differentially methylated nucleic acid of interest from other nucleic acids. providing a gel having immobilized binding sites that bind the differentially methylated nucleic acid of interest with a binding energy greater than the binding energy of other nucleic acids, wherein the differentially methylated nucleic acid has a different binding energy to the binding sites relative to an unmethylated sequence; and applying a time-varying temperature gradient and a time-varying electric driving field to the gel, thereby separating the differentially methylated nucleic acid of interest from other nucleic acids.
An RFID tag assembly (10, 20, 30, 50, 60) comprising: a passive mount-on-metal RFID tag (12, 34), the RFID tag comprising an integrated circuit chip and a dipole antenna comprising first and second antenna portions, the first antenna portion being provided at one side of the RFID tag and the second antenna portion being provided at a second side of the RFID tag, generally opposite said one side;; a mounting base (16, 44, 52, 66) made of an electrically conductive material; and a cover (18, 32, 62) made of a substantially RF transparent material and defining a recess, wherein the RFID tag is mounted directly on the mounting base with said one side of the RFID tag coupled directly to a first side of the mounting base and the cover is arranged over the RFID tag such that at least part of the RFID tag is located within the recess and the cover is fixed to the mounting base, such that the mounting base and the cover together encapsulate the RFID tag. a passive mount-on-metal RFID tag (12, 34), the RFID tag comprising an integrated circuit chip and a dipole antenna comprising first and second antenna portions, the first antenna portion being provided at one side of the RFID tag and the second antenna portion being provided at a second side of the RFID tag, generally opposite said one side;; a mounting base (16, 44, 52, 66) made of an electrically conductive material; and a cover (18, 32, 62) made of a substantially RF transparent material and defining a recess, wherein the RFID tag is mounted directly on the mounting base with said one side of the RFID tag coupled directly to a first side of the mounting base and the cover is arranged over the RFID tag such that at least part of the RFID tag is located within the recess and the cover is fixed to the mounting base, such that the mounting base and the cover together encapsulate the RFID tag.
Pesticide composition comprising: i) at least one pesticide compound, and ii) at least one adjuvant comprising a microfibrillated cellulose, wherein said MFC is an unmodified MFC, wherein the amount of the microfibrillated cellulose is 0.5% by weight or less, characterized in that the MFC is included in said pesticide composition as a built-in adjuvant or added to a tank-mix as a tank-mix adjuvant. i) at least one pesticide compound, and ii) at least one adjuvant comprising a microfibrillated cellulose, wherein said MFC is an unmodified MFC, wherein the amount of the microfibrillated cellulose is 0.5% by weight or less, characterized in that the MFC is included in said pesticide composition as a built-in adjuvant or added to a tank-mix as a tank-mix adjuvant.
A method for wireless communications at a first device (105, 115), comprising: identifying (415, 515) a transmission configuration for a carrier bandwidth allocated for communications with a second device, the transmission configuration indicating a resource block group size and a bandwidth part size; calculating (420, 520) a number of resource block groups for the transmission configuration based at least in part on the resource block group size and the bandwidth part size and according to a first resource allocation type; designating (425, 525) the resource block group size for the transmission configuration as equal to the bandwidth part size based at least in part on the calculated number of resource block groups being equal to one; and communicating (430, 530) with the second device using the carrier bandwidth according to the transmission configuration. identifying (415, 515) a transmission configuration for a carrier bandwidth allocated for communications with a second device, the transmission configuration indicating a resource block group size and a bandwidth part size; calculating (420, 520) a number of resource block groups for the transmission configuration based at least in part on the resource block group size and the bandwidth part size and according to a first resource allocation type; designating (425, 525) the resource block group size for the transmission configuration as equal to the bandwidth part size based at least in part on the calculated number of resource block groups being equal to one; and communicating (430, 530) with the second device using the carrier bandwidth according to the transmission configuration.
Communication apparatus for a vehicle, having: - a sensor device; - a receiving device; - a processing device; - a transmission device; wherein the sensor device is configured to capture environmental data during a movement of the sensor device, wherein the captured environmental data are managed in a vehicle environmental model; wherein the receiving device is configured to receive reference data from an external management apparatus (102, 102a, 102b); wherein the management apparatus (102, 102a, 102b) is arranged outside the sensor device; wherein the processing device is configured to determine a difference between the received reference data and the data from the vehicle environmental model; wherein the transmission device is configured to transmit the determined difference to the external management apparatus, wherein the transmission device has a quantization device, wherein the quantization device is configured to transmit the determined difference above a predefinable threshold value, characterized in that the predefinable threshold value is predefined by the management apparatus, wherein, if the quantization results in lossy compression, a quality measure is calculated from the quantized data and data from the vehicle environmental model, wherein the quality measure indicates how greatly the quality of the data is influenced by lossy compression, wherein the quality measure is transferred to a buffer and is transmitted to the management apparatus. - a sensor device; - a receiving device; - a processing device; - a transmission device; wherein the sensor device is configured to capture environmental data during a movement of the sensor device, wherein the captured environmental data are managed in a vehicle environmental model; wherein the receiving device is configured to receive reference data from an external management apparatus (102, 102a, 102b); wherein the management apparatus (102, 102a, 102b) is arranged outside the sensor device; wherein the processing device is configured to determine a difference between the received reference data and the data from the vehicle environmental model; wherein the transmission device is configured to transmit the determined difference to the external management apparatus, wherein the transmission device has a quantization device, wherein the quantization device is configured to transmit the determined difference above a predefinable threshold value, characterized in that the predefinable threshold value is predefined by the management apparatus, wherein, if the quantization results in lossy compression, a quality measure is calculated from the quantized data and data from the vehicle environmental model, wherein the quality measure indicates how greatly the quality of the data is influenced by lossy compression, wherein the quality measure is transferred to a buffer and is transmitted to the management apparatus.
An image processing method, comprising: in response to detecting that a camera component is turned on, controlling the camera component to collect a speckle image of an object that is illuminated with laser speckles; detecting a current temperature of the camera component; acquiring a reference image with reference depth information based on the current temperature and a preset correspondence between reference images and specified temperatures, wherein the reference images are speckle images which have been collected when calibrating the camera component, wherein acquiring a reference image includes acquiring a difference between the current temperature and each specified temperature, and acquiring the reference image corresponding to the specified temperature with the smallest difference; and calculating based on the speckle image and the acquired reference image to acquire a depth image. in response to detecting that a camera component is turned on, controlling the camera component to collect a speckle image of an object that is illuminated with laser speckles; detecting a current temperature of the camera component; acquiring a reference image with reference depth information based on the current temperature and a preset correspondence between reference images and specified temperatures, wherein the reference images are speckle images which have been collected when calibrating the camera component, wherein acquiring a reference image includes acquiring a difference between the current temperature and each specified temperature, and acquiring the reference image corresponding to the specified temperature with the smallest difference; and calculating based on the speckle image and the acquired reference image to acquire a depth image.
A composition comprising a ligand and a fertilizer, wherein the ligand is ortho-ortho ethylenediamine-N,N'-bis(2-hydroxyphenylacetic acid) (EDDHA); and wherein the composition further comprises chelated zinc.
Wing mirror unit for a motor vehicle, comprising: a mirror housing support for attachment to a body of the motor vehicle; a mirror housing supported by the mirror housing support and pivotably arranged with respect to said support around a rotation axis extending substantially in an upward direction; and a drive, preferably an electric drive, for pivoting the mirror housing between a folded-out position of the mirror housing, in which the mirror housing extends substantially in a direction away from the body of the motor vehicle, and a folded-in position of the mirror housing, in which the mirror housing projects less far and extends in a substantially rearward direction more alongside the body of the motor vehicle, and/or for pivoting the mirror housing between the folded-in position and the folded-out position, wherein the wing mirror unit further comprises a rotation sensor, preferably a potentiometer, characterised in that the rotation sensor has a sensor axis, and wherein the wing mirror unit is arranged for rotating the sensor axis during a limited part of the pivoting route between the folded-out position and the folded-in position and/or during a limited part of the pivoting route between the folded-in position and the folded-out position. a mirror housing support for attachment to a body of the motor vehicle; a mirror housing supported by the mirror housing support and pivotably arranged with respect to said support around a rotation axis extending substantially in an upward direction; and a drive, preferably an electric drive, for pivoting the mirror housing between a folded-out position of the mirror housing, in which the mirror housing extends substantially in a direction away from the body of the motor vehicle, and a folded-in position of the mirror housing, in which the mirror housing projects less far and extends in a substantially rearward direction more alongside the body of the motor vehicle, and/or for pivoting the mirror housing between the folded-in position and the folded-out position, wherein the wing mirror unit further comprises a rotation sensor, preferably a potentiometer, characterised in that the rotation sensor has a sensor axis, and wherein the wing mirror unit is arranged for rotating the sensor axis during a limited part of the pivoting route between the folded-out position and the folded-in position and/or during a limited part of the pivoting route between the folded-in position and the folded-out position.