mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency transceiver comprising: a transceiver circuit for processing radio frequency, RF, signals; an antenna to receive and send millimeter wave RF signals; and an attenuator circuit coupled between said transceiver circuit and antenna, wherein said attenuator circuit is adapted to determine if received millimeter wave RF signals are reflections of a signal sent by the transceiver, or is a signal sent from another source, and if said received signals are reflections increase a level of attenuation applied to sent millimeter wave RF signals sent by the transceiver; and if said received signals are sent from another source, determine a signal strength of said received millimeter wave RF signals, compare said signal strength to a first threshold value, and if said signal strength is above the first threshold value, increase a level of attenuation applied to said received millimeter wave RF signals before processing at the transceiver. a transceiver circuit for processing radio frequency, RF, signals; an antenna to receive and send millimeter wave RF signals; and an attenuator circuit coupled between said transceiver circuit and antenna, wherein said attenuator circuit is adapted to determine if received millimeter wave RF signals are reflections of a signal sent by the transceiver, or is a signal sent from another source, and if said received signals are reflections increase a level of attenuation applied to sent millimeter wave RF signals sent by the transceiver; and if said received signals are sent from another source, determine a signal strength of said received millimeter wave RF signals, compare said signal strength to a first threshold value, and if said signal strength is above the first threshold value, increase a level of attenuation applied to said received millimeter wave RF signals before processing at the transceiver.
A computer-implemented method for generating a color of an object displayed on a graphical user interface of a touch-sensitive display, comprising: - displaying on the graphical user interface a set of icons, each icon of the set being associated with one color; - detecting a first user interaction on a first icon of the set; - detecting a second user interaction that comprises at least a slide on the touch-sensitive display; - modifying a value of a parameter of the color associated with the first icon, which is a first color, the modification of the value being performed with the second user interaction; - computing a first new co lor that is the first color with the modified value of a parameter; - detecting a third user interaction on a second icon of the set associated with a second color; - computing a third color by merging the first new color and the second color. - displaying on the graphical user interface a set of icons, each icon of the set being associated with one color; - detecting a first user interaction on a first icon of the set; - detecting a second user interaction that comprises at least a slide on the touch-sensitive display; - modifying a value of a parameter of the color associated with the first icon, which is a first color, the modification of the value being performed with the second user interaction; - computing a first new co lor that is the first color with the modified value of a parameter; - detecting a third user interaction on a second icon of the set associated with a second color; - computing a third color by merging the first new color and the second color.
A bispecific single chain antibody molecule comprising a first binding domain, which binds to an epitope which is part of an amino acid sequence comprised in the group consisting of SEQ ID NOs. 2, 4, 6, and 8 and comprises at least the amino acid sequence Gln-Asp-Gly-Asn-Glu, and a second binding domain capable of binding to an epitope of a human and a macaque tumor target antigen, wherein at least said first binding domain is a VHH domain and comprises CDR 1 of SEQ ID NO: 398, CDR 2 of SEQ ID NO. 399 and CDR 3 of SEQ ID NO. 400.
A perfusion apparatus for at least one of storage, treatment, assessment and transport of an organ or tissue, the perfusion apparatus comprising: a coolant container having a cooling surface configured to cool the organ or tissue; a first sample compartment for holding a biological sample separate from the organ or tissue; and a second sample compartment (170B, 170C); wherein the coolant container is configured to cool the first sample compartment, the coolant container has a first cavity and a second cavity, the first cavity is configured to cool and support the organ or tissue, and the second cavity, which defines a wall of the first sample compartment, is configured to cool and support the biological sample; the perfusion apparatus further comprising: a first internal compartment under a first cover of the perfusion apparatus; and a second internal compartment under a second cover that is configured to close the perfusion apparatus in cooperation with the first cover; wherein the first internal compartment includes: the cooling surface of the coolant container; and the first sample compartment; and wherein the second internal compartment includes the second sample compartment (170B, 170C). a coolant container having a cooling surface configured to cool the organ or tissue; a first sample compartment for holding a biological sample separate from the organ or tissue; and a second sample compartment (170B, 170C); wherein the coolant container is configured to cool the first sample compartment, the coolant container has a first cavity and a second cavity, the first cavity is configured to cool and support the organ or tissue, and the second cavity, which defines a wall of the first sample compartment, is configured to cool and support the biological sample; the perfusion apparatus further comprising: a first internal compartment under a first cover of the perfusion apparatus; and a second internal compartment under a second cover that is configured to close the perfusion apparatus in cooperation with the first cover; wherein the first internal compartment includes: the cooling surface of the coolant container; and the first sample compartment; and wherein the second internal compartment includes the second sample compartment (170B, 170C). a first internal compartment under a first cover of the perfusion apparatus; and a second internal compartment under a second cover that is configured to close the perfusion apparatus in cooperation with the first cover; wherein the first internal compartment includes: the cooling surface of the coolant container; and the first sample compartment; and wherein the second internal compartment includes the second sample compartment (170B, 170C). the cooling surface of the coolant container; and the first sample compartment; and wherein the second internal compartment includes the second sample compartment (170B, 170C).
Apparatus for identification of tissue carriers of human or animal tissue that are grouped in a batch, wherein the apparatus comprises: - a working area for receiving the batch of at least two tissue carriers; - a presence sensor for detecting the physical presence of each of the tissue carriers of the batch received at the working area; and - an identification device for detecting a unique identifier of each of the tissue carriers of the batch received at the working area; characterized in that the apparatus further comprises - a control unit (140, 141, 142) being configured to identify as identified positions positions of the working area, at which a tissue carrier is detected to be present but at which no unique identifier is detected to be present, and the control unit (140, 141, 142) being further configured to identify as identified positions positions of the working area, at which a unique identifier is detected to be present but at which no tissue carrier is detected to be present, wherein the control unit (140, 141, 142) is further configured to provide information that there is a potential mismatch between the data regarding the presence of the tissue carrier and the data regarding the unique identifier of the tissue carrier. - a working area for receiving the batch of at least two tissue carriers; - a presence sensor for detecting the physical presence of each of the tissue carriers of the batch received at the working area; and - an identification device for detecting a unique identifier of each of the tissue carriers of the batch received at the working area; - a control unit (140, 141, 142) being configured to identify as identified positions positions of the working area, at which a tissue carrier is detected to be present but at which no unique identifier is detected to be present, and the control unit (140, 141, 142) being further configured to identify as identified positions positions of the working area, at which a unique identifier is detected to be present but at which no tissue carrier is detected to be present,
Lie-on arrangement comprising a lie-on unit with a lie-on frame and also comprising a backrest frame, which extends upwards relative to the lie-on frame and on which at least one cushion, which has a retaining means, is arranged in a releasable manner, for which purpose a retaining element, which is provided on the backrest frame, interacts with the retaining means in a releasable manner, wherein the retaining means is a pocket-like mount, in which the retaining element, which is designed in the form of an angular retaining bracket projecting from the backrest frame, engages.
A conveyor system with a knife (100, 500) adapted to cut food items into smaller food items (510, 511), comprising: • a first rotatable knife device comprising a knife blade, • a conveying system (101, 102) for conveying food items to be cut, wherein the rotatable knife device is positioned above a carrying surface of the conveying system with the knife plane of the rotatable knife device extending through a first gap, the rotatable knife device being adapted for cutting a food item into smaller food items while the food item passes the first gap, wherein the conveyor system comprises a first and a second conveyor means (101, 102), where a second end of the first conveyor is positioned adjacent to a first end of the second conveyor means and where the gap is defined by a distance between the second and the first ends, and characterised in that the shape of the carrying surface around the first gap is concave and essentially follows the knife path of the rotatable knife blade, and • the cross-sectional shape of the carrying surface extending across the conveyor system and perpendicular to the conveying direction is an arc having a center of a circle substantially at the rotational axis of the rotatable knife device, or • the cross-sectional shape of the carrying surface extending across the conveyor system and seen in the direction of the conveyor forms a vertically oriented elliptical section shape such that the shape of the first gap when the first gap forms an angle to the axis perpendicular to the conveying direction can be an arc having a center of a circle substantially at the rotational axis of the rotatable knife device. • a first rotatable knife device comprising a knife blade, • a conveying system (101, 102) for conveying food items to be cut, • the cross-sectional shape of the carrying surface extending across the conveyor system and perpendicular to the conveying direction is an arc having a center of a circle substantially at the rotational axis of the rotatable knife device, or • the cross-sectional shape of the carrying surface extending across the conveyor system and seen in the direction of the conveyor forms a vertically oriented elliptical section shape such that the shape of the first gap when the first gap forms an angle to the axis perpendicular to the conveying direction can be an arc having a center of a circle substantially at the rotational axis of the rotatable knife device.
A method for encoding a video sequence comprising a plurality of pictures, the method comprising: determining a directional pattern in a chroma prediction block of one of the pictures in the video sequence, wherein the chroma prediction block is created by cross-component linear model (CCLM) mode, wherein the determining comprises using information from a luma reference block from which the chroma prediction block is generated to determine the directional pattern, wherein the luma reference block is coded using an intra prediction mode and wherein determining the directional pattern comprises or consists of determining the intra prediction mode of the luma reference block; selecting a transform set for the chroma prediction block based on the determined directional pattern; and using the selected transform set, transforming data derived from the chroma prediction block, wherein transforming data using the transform set selected based on the determined directional pattern comprises transforming a residual block using the selected transform set. determining a directional pattern in a chroma prediction block of one of the pictures in the video sequence, wherein the chroma prediction block is created by cross-component linear model (CCLM) mode, wherein the determining comprises using information from a luma reference block from which the chroma prediction block is generated to determine the directional pattern, wherein the luma reference block is coded using an intra prediction mode and wherein determining the directional pattern comprises or consists of determining the intra prediction mode of the luma reference block; selecting a transform set for the chroma prediction block based on the determined directional pattern; and using the selected transform set, transforming data derived from the chroma prediction block, wherein transforming data using the transform set selected based on the determined directional pattern comprises transforming a residual block using the selected transform set.
A service data transmission method performed by a base station, the method comprising: • broadcasting a service migration message to a terminal by using a second spectrum, wherein the service migration message is used to instruct the terminal to receive service data on at least one first spectrum, wherein each first spectrum among the at least one first spectrum, and the second spectrum are different licensed spectrums, or each first spectrum among the at least one first spectrum is an unlicensed spectrum and the second spectrum is a licensed spectrum; • sending configuration information of dedicated subframes and transmission channel information of the service data to the terminal by using the at least one first spectrum, wherein the transmission channel information is used to indicate a physical resource location occupied by the service data carried in the dedicated subframes and a modulation and demodulation scheme of the service data; • adding indication information to a last subframe of the dedicated subframes, wherein the indication information is used to indicate whether the terminal is to perform blind detection on a subsequent subframe, and the blind detection is used to determine whether the subsequent subframe carries new service data; • sending the service data and the indication information to the terminal by using the dedicated subframes, the dedicated subframes being sent on the at least one first spectrum. • broadcasting a service migration message to a terminal by using a second spectrum, wherein the service migration message is used to instruct the terminal to receive service data on at least one first spectrum, wherein each first spectrum among the at least one first spectrum, and the second spectrum are different licensed spectrums, or each first spectrum among the at least one first spectrum is an unlicensed spectrum and the second spectrum is a licensed spectrum; • sending configuration information of dedicated subframes and transmission channel information of the service data to the terminal by using the at least one first spectrum, wherein the transmission channel information is used to indicate a physical resource location occupied by the service data carried in the dedicated subframes and a modulation and demodulation scheme of the service data; • adding indication information to a last subframe of the dedicated subframes, wherein the indication information is used to indicate whether the terminal is to perform blind detection on a subsequent subframe, and the blind detection is used to determine whether the subsequent subframe carries new service data; • sending the service data and the indication information to the terminal by using the dedicated subframes, the dedicated subframes being sent on the at least one first spectrum.
Traction or carrying belt made from elastomeric material and having a substantially flat drive side, in particular lift belt, wherein traction members or cords running parallel are embedded in the elastomeric material of the traction or carrying belt, in the longitudinal direction thereof, and the traction or carrying belt wraps around belt sheaves and/or deflecting pulleys (4a, 4b) of a belt drive in a manner circulating via an arc of wrap, as a result of which the traction or carrying belt is driven, deflected or guided, wherein the flat drive side of the traction or carrying belt has a plurality of grooves, wherein the grooves run in the longitudinal direction of the belt and have a width b increasing and decreasing in an alternating manner in the transverse direction of the belt, preferably a width changing periodically between the values b min and b max in the belt transverse direction, characterized in that the width varies between the values b min = 0.1 [mm] and b max = (( s - d) + d /2) [ mm], preferably between the values b min = 0.5 [ mm] and b max = (( s - d) + d /4) [ mm], wherein d = diameter of the traction members/cords, and s = distance between the centre lines of two adjacent traction members. the width varies between the values b min = 0.1 [mm] and b max = (( s - d) + d /2) [ mm], preferably between the values b min = 0.5 [ mm] and b max = (( s - d) + d /4) [ mm], wherein d = diameter of the traction members/cords, and s = distance between the centre lines of two adjacent traction members.
A method for producing a fluorosulfonyl group-containing compound of Formula 5, which comprises: reacting a compound represented by the following formula 1 with a sulfonating agent to obtain a compound represented by the following formula 2, reacting the compound represented by the following formula 2 with a chlorinating agent to obtain a compound represented by the following formula 3, reacting the compound represented by the following formula 3 with a fluorinating agent to obtain a compound represented by the following formula 4, and subjecting the compound represented by the following formula 4 to fluorination treatment to obtain a compound represented by the following formula 5: wherein R 1 and R 2 are a C 1-3 alkylene group, and R F1 and R F2 are a C 1-3 perfluoroalkylene group. reacting a compound represented by the following formula 1 with a sulfonating agent to obtain a compound represented by the following formula 2, reacting the compound represented by the following formula 2 with a chlorinating agent to obtain a compound represented by the following formula 3, reacting the compound represented by the following formula 3 with a fluorinating agent to obtain a compound represented by the following formula 4, and subjecting the compound represented by the following formula 4 to fluorination treatment to obtain a compound represented by the following formula 5:
An implantable medical device, comprising: a stent (10; 310; 610; 710; 910; 1010) having a first configuration and a second expanded configuration; wherein the stent (10; 310; 610; 710; 910; 1010) defines a plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016'); wherein the stent (10; 310; 610; 710; 910; 1010) has a plurality of cover members (318; 618; 718; 918; 1018) disposed adjacent the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016'); wherein each of the plurality of cover members (318; 618; 718; 918; 1018) is configured to cover at least some of the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016') when the stent (10; 310; 610; 710; 910; 1010) is in the expanded configuration; wherein the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016') include a radiopaque node loop (320; 620; 720; 920; 1020) that is only attached to one of the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016'); wherein the radiopaque node loop (320; 620; 720; 920; 1020) is disposed between adjacent cover members (318; 618; 718; 918; 1018). a stent (10; 310; 610; 710; 910; 1010) having a first configuration and a second expanded configuration; wherein the stent (10; 310; 610; 710; 910; 1010) defines a plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016'); wherein the stent (10; 310; 610; 710; 910; 1010) has a plurality of cover members (318; 618; 718; 918; 1018) disposed adjacent the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016'); wherein each of the plurality of cover members (318; 618; 718; 918; 1018) is configured to cover at least some of the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016') when the stent (10; 310; 610; 710; 910; 1010) is in the expanded configuration; wherein the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016') include a radiopaque node loop (320; 620; 720; 920; 1020) that is only attached to one of the plurality of nodes (316a-c; 616; 716; 916, 916'; 1016, 1016'); wherein the radiopaque node loop (320; 620; 720; 920; 1020) is disposed between adjacent cover members (318; 618; 718; 918; 1018).
An electrochemical measurement apparatus, comprising a glass electrode that is equipped with responsive glass containing Me 2 O 3, wherein Me is lanthanide, and a reference electrode having a reference electrode internal solution containing a copolymerization of a cross-linking agent having a plurality of functional groups excluding acrylamide, and a monofunctional hydrophilic monomer excluding acrylamide, wherein the cross-linking agent is an acrylate or methacrylate, and wherein the hydrophilic monomer is an acrylate or methacrylate.
A room-temperature-curable silicone rubber composition comprising: 100 parts by mass of an organopolysiloxane having on silicon atoms in the molecular chain in one molecule at least two alkoxysilyl-containing groups represented by the following general formula: wherein each R 1 is independently selected from monovalent hydrocarbon groups that do not have an unsaturated aliphatic bond, R 2 is an alkyl group, each R 3 is independently selected from alkylene groups, "a" is an integer from 0 to 2, and "p" is an integer from 1 to 50; 1 to 100 parts by mass of an organopolysiloxane having on silicon atom in the molecular chain neither a hydroxyl group nor an alkoxy group; 0.5 to 30 parts by mass of an alkoxysilane or its partial hydrolysis and condensation product, wherein the alkoxysilane is represented by the following general formula: R 4 b Si(OR 5) (4-b) wherein R 4 is a monovalent hydrocarbon group, R 5 is an alkyl group, and "b" is 0 or 1; and 0.1 to 10 parts by mass of a condensation reaction catalyst. 100 parts by mass of an organopolysiloxane having on silicon atoms in the molecular chain in one molecule at least two alkoxysilyl-containing groups represented by the following general formula: wherein each R 1 is independently selected from monovalent hydrocarbon groups that do not have an unsaturated aliphatic bond, R 2 is an alkyl group, each R 3 is independently selected from alkylene groups, "a" is an integer from 0 to 2, and "p" is an integer from 1 to 50; 1 to 100 parts by mass of an organopolysiloxane having on silicon atom in the molecular chain neither a hydroxyl group nor an alkoxy group; 0.5 to 30 parts by mass of an alkoxysilane or its partial hydrolysis and condensation product, wherein the alkoxysilane is represented by the following general formula: R 4 b Si(OR 5) (4-b) wherein R 4 is a monovalent hydrocarbon group, R 5 is an alkyl group, and "b" is 0 or 1; and 0.1 to 10 parts by mass of a condensation reaction catalyst.