mhurhangee/ep-ind-claims huggingface dataset:
A polynucleotide combination for the detection of an NRAS gene isoform comprising: - a first polynucleotide suitable as a PCR primer comprising a first domain (Pa) that is complementary to a first polynucleotide region of said NRAS isoform and a second domain (Pc) comprising a unique polynucleotide sequence, - a second polynucleotide comprising a first domain (Fb) that is complementary to a second polynucleotide region of said NRAS isoform and a second domain (Fd) comprising a polynucleotide sequence sufficiently complementary to Pc such that Pc and Fd will hybridize under appropriate conditions, - a reverse primer, wherein the reverse primer comprises a polynucleotide sequence complementary to a polynucleotide strand comprising a sequence that hybridizes to a fifth region of said NRAS isoform T5, and - a probe polynucleotide comprising a nucleotide sequence that is complementary to a fourth polynucleotide region of said NRAS isoform, wherein T4 is located between T1 and T5 or between a third polynucleotide region of said NRAS isoform and T5, wherein T3 is located 3' of T1 and T2 and 5' of T4, - optionally a blocker polynucleotide, wherein the blocker polynucleotide comprises a nucleotide sequence that is complementary to the third polynucleotide region of said NRAS isoform, and wherein T3 is located 3' of T1 and T2 and 5' of T4, wherein the first polynucleotide comprises a sequence selected from the group of sequences depicted in SEQ ID NO: 5 to 7. - a first polynucleotide suitable as a PCR primer comprising a first domain (Pa) that is complementary to a first polynucleotide region of said NRAS isoform and a second domain (Pc) comprising a unique polynucleotide sequence, - a second polynucleotide comprising a first domain (Fb) that is complementary to a second polynucleotide region of said NRAS isoform and a second domain (Fd) comprising a polynucleotide sequence sufficiently complementary to Pc such that Pc and Fd will hybridize under appropriate conditions, - a reverse primer, wherein the reverse primer comprises a polynucleotide sequence complementary to a polynucleotide strand comprising a sequence that hybridizes to a fifth region of said NRAS isoform T5, and - a probe polynucleotide comprising a nucleotide sequence that is complementary to a fourth polynucleotide region of said NRAS isoform, wherein T4 is located between T1 and T5 or between a third polynucleotide region of said NRAS isoform and T5, wherein T3 is located 3' of T1 and T2 and 5' of T4, - optionally a blocker polynucleotide, wherein the blocker polynucleotide comprises a nucleotide sequence that is complementary to the third polynucleotide region of said NRAS isoform, and wherein T3 is located 3' of T1 and T2 and 5' of T4,
A cosmetic applicator having a core that supports the application devices in the form of bristles and/or comb teeth (10, 10'), the core including a central body, which is itself equipped with a plurality of bristles and/or comb/teeth protruding outward from it directly, characterized in that the core furthermore consists of at least one leg (3a, 3b, 3c, 3d) protruding outward from the central body, which leg is in turn equipped with a plurality of bristles and/or comb teeth and is able to move in a pivoting fashion relative to the central body around an axis parallel to the longitudinal axis L.
An air valve assembly comprising: an air valve component including an outer body defining an internal receiving chamber, and an air valve in fluid communication with the internal receiving chamber, the outer body including an air hole fluidly connecting the internal receiving chamber and an air chamber of an inflatable product; a decompression valve component received within the internal receiving chamber and supported for longitudinal movement within the internal receiving chamber between a sealed state and an open state, the decompression valve component sealing the air valve of the air valve component from the air hole of the outer body in the sealed state, and the decompression valve component fluidly connecting the air valve of the air valve component and the air hole of the outer body in the open state; wherein the decompression valve component includes a decompression passage fluidly connecting the air chamber and atmosphere, a sealing portion configured to close the decompression passage in the sealed state, and a limit portion operably coupled with the sealing portion; and wherein when air pressure within the internal receiving chamber is greater than a decompression value, the sealing portion and the limit portion move relative to each other, and the sealing portion abuts the limit portion to move the decompression valve component from the sealed state to the open state. an air valve component including an outer body defining an internal receiving chamber, and an air valve in fluid communication with the internal receiving chamber, the outer body including an air hole fluidly connecting the internal receiving chamber and an air chamber of an inflatable product; a decompression valve component received within the internal receiving chamber and supported for longitudinal movement within the internal receiving chamber between a sealed state and an open state, the decompression valve component sealing the air valve of the air valve component from the air hole of the outer body in the sealed state, and the decompression valve component fluidly connecting the air valve of the air valve component and the air hole of the outer body in the open state; wherein the decompression valve component includes a decompression passage fluidly connecting the air chamber and atmosphere, a sealing portion configured to close the decompression passage in the sealed state, and a limit portion operably coupled with the sealing portion; and wherein when air pressure within the internal receiving chamber is greater than a decompression value, the sealing portion and the limit portion move relative to each other, and the sealing portion abuts the limit portion to move the decompression valve component from the sealed state to the open state.
Driven machine tool, in particular angle grinder or straight grinder, comprising a drive unit with a drive switch designed as a cube switch or pressure switch for switching the drive unit on and off, a housing in which the drive unit is at least partially accommodated, and an actuating mechanism for actuating the drive switch, wherein the actuating mechanism has a switch rod which is displaceable along a longitudinal axis of the housing and which projects with an actuating portion through a recess of the housing, and a switch lever which is pivotably mounted in a bearing point and has at least one lever arm, wherein the shift rod is coupled to the at least one lever arm and is capable of pivoting the lever arm as a result of its displacement, characterised in that the bearing point of the shift lever is arranged on the housing, in that the shift lever, at least during its pivoting movement in the direction of the drive switch, contacts the drive switch on an outer surface facing the shift lever in the region of a contact point, in that the drive switch can be pressed for switching on by pivoting the switching lever in the direction of the drive switch, and in that switching off is made possible by pivoting the switching lever away. wherein the actuating mechanism has a switch rod which is displaceable along a longitudinal axis of the housing and which projects with an actuating portion through a recess of the housing, and a switch lever which is pivotably mounted in a bearing point and has at least one lever arm, wherein the shift rod is coupled to the at least one lever arm and is capable of pivoting the lever arm as a result of its displacement, characterised in that the bearing point of the shift lever is arranged on the housing, in that the shift lever, at least during its pivoting movement in the direction of the drive switch, contacts the drive switch on an outer surface facing the shift lever in the region of a contact point, in that the drive switch can be pressed for switching on by pivoting the switching lever in the direction of the drive switch, and in that switching off is made possible by pivoting the switching lever away.
Enclosure for modular construction systems comprising a plurality of panels having a tongue and groove joint at their upper, bottom and side edges for coupling to each other, wherein said panels are formed by a multilayer outer piece, a multilayer inner piece, and an intermediate air chamber arranged between the outer and inner pieces (10, 20), whereby - the outer pieces have a transverse groove located in the lower and upper edge of each outer piece and recesses located at the side edges thereof; - said enclosure comprises bracing metal bars, coupled to the groove of the outer pieces, which are located in a higher and lower position with respect to the enclosure, said bracing metal bars remaining arranged at a level corresponding to the ceiling and/or floor of each floor or height of the modular construction system; and in that - said enclosure comprises supporting metal bars, coupled vertically in correspondence with the recesses of the outer pieces, and wherein each supporting metal bar is located in an intermediate position between each two columns of panels; wherein the enclosure further comprises a multilayer floor slab comprising: - a metal-rubber acoustic laminate arranged on the upper end of each bracing metal bar, - a structural metal bar, - a wooden board disposed on the structural metal bar, - an insulating layer, arranged in a position immediately above with respect to the wooden board, - a panel with heating-cooling floor located on the insulating layer, - a layer of mortar arranged on the panel with heating-cooling floor, and - a floor finish. - the outer pieces have a transverse groove located in the lower and upper edge of each outer piece and recesses located at the side edges thereof; - said enclosure comprises bracing metal bars, coupled to the groove of the outer pieces, which are located in a higher and lower position with respect to the enclosure, said bracing metal bars remaining arranged at a level corresponding to the ceiling and/or floor of each floor or height of the modular construction system; and in that - said enclosure comprises supporting metal bars, coupled vertically in correspondence with the recesses of the outer pieces, and wherein each supporting metal bar is located in an intermediate position between each two columns of panels; - a metal-rubber acoustic laminate arranged on the upper end of each bracing metal bar, - a structural metal bar, - a wooden board disposed on the structural metal bar, - an insulating layer, arranged in a position immediately above with respect to the wooden board, - a panel with heating-cooling floor located on the insulating layer, - a layer of mortar arranged on the panel with heating-cooling floor, and - a floor finish.
An ultrasound imaging system comprising: a transducer array including a two-dimensional array of rows of transducer elements, the transducer elements of each row being configured to extend along a long axis with the rows being parallel to each other, the two-dimensional array being configured to include outer rows (110 1, 110 3) with end regions (602, 604, 606, 608) with at least one inner row (110 1) disposed between the outer rows; transmit circuitry configured to actuate the transducer elements to transmit an ultrasound signal; receive circuitry configured to receive echoes produced in response to an interaction between the ultrasound signal and a structure, the echoes being received by the transducer elements; and a beamformer configured to process the received echoes and to generate one or more scan lines indicative of the structure with which the ultrasound signal interacted; characterized in that the number of elements in each of the inner rows and the outer rows are the same; and in that the elements of the at least one inner row are configured to be rectangular in shape with elements in the end regions (602, 604, 606, 608) of the outer rows (110 1, 110 3) forming a set of non-rectangular active transducer elements. a transducer array including a two-dimensional array of rows of transducer elements, the transducer elements of each row being configured to extend along a long axis with the rows being parallel to each other, the two-dimensional array being configured to include outer rows (110 1, 110 3) with end regions (602, 604, 606, 608) with at least one inner row (110 1) disposed between the outer rows; transmit circuitry configured to actuate the transducer elements to transmit an ultrasound signal; receive circuitry configured to receive echoes produced in response to an interaction between the ultrasound signal and a structure, the echoes being received by the transducer elements; and a beamformer configured to process the received echoes and to generate one or more scan lines indicative of the structure with which the ultrasound signal interacted; characterized in that the number of elements in each of the inner rows and the outer rows are the same; and in that the elements of the at least one inner row are configured to be rectangular in shape with elements in the end regions (602, 604, 606, 608) of the outer rows (110 1, 110 3) forming a set of non-rectangular active transducer elements.
A vaccine comprising in combination killed whole cell Lawsonia intracellularis bacteria and porcine circo virus 2 ORF2 protein for use in protecting a pig against an infection with Lawsonia intracellularis and PCV2 by an intradermal administration of the vaccine, wherein the vaccine comprises between 2.5% (v/v) and 12.5% (v/v) of a saturated hydrocarbon oil adjuvant.
A system for establishing a correspondence between a first image and a subsequent image of a machine readable symbol, the system comprising: an imaging device, the imaging device adapted to acquire the first image (84; 128) and the subsequent image (116; 140), the first image (84; 128) including a first candidate region for the machine readable symbol, and the subsequent image (116; 140) including symbol data; and a processor that is operatively coupled to the imaging device and is adapted to execute a data stitching algorithm; characterised in that: the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol; correlates the synthetic model and the symbol data to find a position association between the first candidate region and the symbol data; and based on the position association, refines the subsequent image to produce refined subsequent image, such that the first image (84; 128) and the subsequent image can be stitched together for decoding. an imaging device, the imaging device adapted to acquire the first image (84; 128) and the subsequent image (116; 140), the first image (84; 128) including a first candidate region for the machine readable symbol, and the subsequent image (116; 140) including symbol data; and a processor that is operatively coupled to the imaging device and is adapted to execute a data stitching algorithm; characterised in that: the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol; correlates the synthetic model and the symbol data to find a position association between the first candidate region and the symbol data; and based on the position association, refines the subsequent image to produce refined subsequent image, such that the first image (84; 128) and the subsequent image can be stitched together for decoding. the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol; correlates the synthetic model and the symbol data to find a position association between the first candidate region and the symbol data; and based on the position association, refines the subsequent image to produce refined subsequent image, such that the first image (84; 128) and the subsequent image can be stitched together for decoding.
A gateway device (110; 200, 210) comprising: a communication unit (111; 202) configured to receive a frame conforming to an IuUP, IuUser Plane, protocol from a wireless base station controller connected to a circuit switching network; a determination unit (112; 201) configured to determine whether the frame received by the communication unit satisfies a predetermined condition or not, wherein the determination unit determines that the frame satisfies the predetermined condition when the frame indicates an initialization request of the IuUP protocol, the initialization request being a procedure for securing a necessary band in a signal path from an IMS, IP Multimedia Subsystem, core network to the wireless base station controller; a conversion unit (113; 203) configured to convert information included in the frame to mode-set information to be set in a flow control signal of the IMS core network when the frame satisfies the predetermined condition, wherein the mode-set information is for instructing a communication device in the IMS core network on an AMR, Adaptive Multi-Rate, bit rate to be applied to data transmission from the communication device in the IMS core network to the wireless base station controller; and a flow control signal transmission unit configured to transmit the flow control signal including the converted information to the communication device in the IMS core network, the flow control signal comprising a signal conforming to RTCP, RTP Control Protocol. a communication unit (111; 202) configured to receive a frame conforming to an IuUP, IuUser Plane, protocol from a wireless base station controller connected to a circuit switching network; a determination unit (112; 201) configured to determine whether the frame received by the communication unit satisfies a predetermined condition or not, wherein the determination unit determines that the frame satisfies the predetermined condition when the frame indicates an initialization request of the IuUP protocol, the initialization request being a procedure for securing a necessary band in a signal path from an IMS, IP Multimedia Subsystem, core network to the wireless base station controller; a conversion unit (113; 203) configured to convert information included in the frame to mode-set information to be set in a flow control signal of the IMS core network when the frame satisfies the predetermined condition, wherein the mode-set information is for instructing a communication device in the IMS core network on an AMR, Adaptive Multi-Rate, bit rate to be applied to data transmission from the communication device in the IMS core network to the wireless base station controller; and a flow control signal transmission unit configured to transmit the flow control signal including the converted information to the communication device in the IMS core network, the flow control signal comprising a signal conforming to RTCP, RTP Control Protocol.
An image pickup apparatus to which a plurality of types of lens units are selectively attachable, the plurality of types of lens units including a first lens unit that performs communication with the image pickup apparatus with a first voltage and a second lens unit that performs communication with the image pickup apparatus with a second voltage different from the first voltage, the image pickup apparatus comprising: a controller configured to operate with a third voltage different from at least one of the first and second voltages to output a signal for the communication with the first and second lens units; and a determiner (90, 20) configured to determine the type of the lens unit attached to the image pickup apparatus; and a mount to mechanically couple with the lens unit and to electrically connect the image pickup apparatus with the lens unit, characterized in that the mount includes a first terminal (DTEF) through which the determiner determines the type of the lens unit attached to the image pickup apparatus by detecting a voltage value corresponding to the type of the lens unit; and the controller is configured to produce, as a voltage of the signal for the communication, from the third voltage, one of the first and second voltages corresponding to the type of the lens unit determined by the determiner, whereas the controller is configured to supply a fourth voltage through a terminal different from the first terminal, different from at least one of the first and second voltages, to the lens unit, as source power for a lens controller which controls the communication with the image pickup apparatus, regardless of the type of the lens unit determined by the determiner. a controller configured to operate with a third voltage different from at least one of the first and second voltages to output a signal for the communication with the first and second lens units; and a determiner (90, 20) configured to determine the type of the lens unit attached to the image pickup apparatus; and a mount to mechanically couple with the lens unit and to electrically connect the image pickup apparatus with the lens unit, characterized in that the mount includes a first terminal (DTEF) through which the determiner determines the type of the lens unit attached to the image pickup apparatus by detecting a voltage value corresponding to the type of the lens unit; and the controller is configured to produce, as a voltage of the signal for the communication, from the third voltage, one of the first and second voltages corresponding to the type of the lens unit determined by the determiner, whereas the controller is configured to supply a fourth voltage through a terminal different from the first terminal, different from at least one of the first and second voltages, to the lens unit, as source power for a lens controller which controls the communication with the image pickup apparatus, regardless of the type of the lens unit determined by the determiner.
Use of an insulation material obtainable by a process in which an insulating foam material is placed in a mould and in which a) isocyanates, b) polymeric compound having hydrogen atoms reactive towards isocyanate, c) chain extenders and/or crosslinkers, d) catalysts and e) optionally other assistants and/or additives are mixed to give a reaction mixture and the reaction mixture is injected into the mould and cured to form a seamless outer material enclosing the insulating foam wherein the chain extenders and crosslinkers (c) comprise primary and/or secondary amine group containing molecules and wherein the average functionality of the polyols (b) and the chain extenders and/or crosslinkers (c) and the isocyanates (a) is more than 2.2, as door or wall component for a cold storing device. a) isocyanates, b) polymeric compound having hydrogen atoms reactive towards isocyanate, c) chain extenders and/or crosslinkers, d) catalysts and e) optionally other assistants and/or additives are mixed to give a reaction mixture and the reaction mixture is injected into the mould and cured to form a seamless outer material enclosing the insulating foam wherein the chain extenders and crosslinkers (c) comprise primary and/or secondary amine group containing molecules and wherein the average functionality of the polyols (b) and the chain extenders and/or crosslinkers (c) and the isocyanates (a) is more than 2.2, as door or wall component for a cold storing device.