mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: receiving network topology information about a network segment between a source node and a destination node ; identifying, based on the network topology information, a significant intermediate node in the network segment , wherein the significant intermediate node is included in a plurality of paths between the source node and the destination node ; determining a first plurality of potential paths from the source node to the significant intermediate node ; calculating a first probabilistic cover value based on the first plurality of potential paths, wherein the probabilistic cover value refers to how many different groups of traceroute packets should be sent between two nodes so that there is a probability with a defined value that at least one group of traceroute packets will travel across each of the paths between those nodes; causing a first set of traceroute packets to be sent from the source node , the first set of traceroute packets being based on the first probabilistic cover value; determining a second plurality of potential paths from the significant intermediate node to a subsequent node; calculating a second probabilistic cover value based on the second plurality of potential paths; and causing a second set of traceroute packets to be sent from the source node , the second set of traceroute packets being based on the second probabilistic cover value. receiving network topology information about a network segment between a source node and a destination node ; identifying, based on the network topology information, a significant intermediate node in the network segment , wherein the significant intermediate node is included in a plurality of paths between the source node and the destination node ; determining a first plurality of potential paths from the source node to the significant intermediate node ; calculating a first probabilistic cover value based on the first plurality of potential paths, wherein the probabilistic cover value refers to how many different groups of traceroute packets should be sent between two nodes so that there is a probability with a defined value that at least one group of traceroute packets will travel across each of the paths between those nodes; causing a first set of traceroute packets to be sent from the source node , the first set of traceroute packets being based on the first probabilistic cover value; determining a second plurality of potential paths from the significant intermediate node to a subsequent node; calculating a second probabilistic cover value based on the second plurality of potential paths; and causing a second set of traceroute packets to be sent from the source node , the second set of traceroute packets being based on the second probabilistic cover value.
An assembly for detachably securing an electrical device to a support surface , comprising: a support socket mountable to the support surface ; characterized in that the assembly further comprises a first co-axial electrical connector attached to and axially slidable within the support socket via a biasing element ; and a fitting module connectable to the electrical device, and having a second co-axial electrical connector for orientation-independent connection with the first co-axial electrical connector , wherein the biasing element is configured to provide a force against insertion of the fitting module into the support socket , wherein an internal wall of the support socket comprises a row of projections spaced apart from each other, each projection defining a camming surface and a retaining recess , and an external wall of the fitting module comprises at least two sets of externally projecting lugs , each set comprising a retaining lug and two spaced apart guiding lugs , or vice versa, wherein the fitting module is secured into the support socket in any rotational orientation by pushing in the axial direction against the biasing element , such that a lug of each set of lugs is directed along a camming surface to thereby move itself or another lug between two projections to enter into a retaining recess , and wherein the fitting module is released from the support socket by pushing in the axial direction against the biasing element , such that a lug of each set of lugs is directed along a camming surface and a lug within a retaining recess is moved out of the retaining recess to exit between two projections . a support socket mountable to the support surface ; characterized in that the assembly further comprises a first co-axial electrical connector attached to and axially slidable within the support socket via a biasing element ; and a fitting module connectable to the electrical device, and having a second co-axial electrical connector for orientation-independent connection with the first co-axial electrical connector , wherein the biasing element is configured to provide a force against insertion of the fitting module into the support socket , wherein an internal wall of the support socket comprises a row of projections spaced apart from each other, each projection defining a camming surface and a retaining recess , and an external wall of the fitting module comprises at least two sets of externally projecting lugs , each set comprising a retaining lug and two spaced apart guiding lugs , or vice versa, wherein the fitting module is secured into the support socket in any rotational orientation by pushing in the axial direction against the biasing element , such that a lug of each set of lugs is directed along a camming surface to thereby move itself or another lug between two projections to enter into a retaining recess , and wherein the fitting module is released from the support socket by pushing in the axial direction against the biasing element , such that a lug of each set of lugs is directed along a camming surface and a lug within a retaining recess is moved out of the retaining recess to exit between two projections .
A bispecific single chain antibody construct comprising a first binding domain specifically binding to CD33 and a second binding domain specifically binding to CD3 for use in the treatment of myeloid leukemia, the construct comprising an amino acid sequence selected from the group consisting of SEQ ID NOs: 104 and 108, wherein the construct is administered for a maximal period of 14 days followed by a period of at least 14 days without administration of the construct, wherein the construct is administered according to a schedule comprising the following steps: (a) administration of a first dose of the bispecific construct, wherein the bispecific construct is administered at a dose of 10 μg/d, followed by (b) administration of a second dose of the bispecific construct, wherein said second dose exceeds said first dose, wherein the bispecific construct is administered at a dose in the range of 30 μg/d to 500 μg/d, optionally followed by (c) administration of a third dose of the bispecific construct, wherein said optional third dose exceeds said second dose, wherein the period of administration of the bispecific construct of the second and optional third dose is 10 days. (a) administration of a first dose of the bispecific construct, wherein the bispecific construct is administered at a dose of 10 μg/d, followed by (b) administration of a second dose of the bispecific construct, wherein said second dose exceeds said first dose, wherein the bispecific construct is administered at a dose in the range of 30 μg/d to 500 μg/d, optionally followed by (c) administration of a third dose of the bispecific construct, wherein said optional third dose exceeds said second dose,
Construction machine, in particular a wheel loader, comprising a) an engine ; b) a first pump for conveying a hydraulic fluid; c) a second pump for conveying a hydraulic fluid; d) a hydraulically driven working device which is supplied with a main volume flow; e) a plurality of hydraulically driven additional devices , which are each supplied via a secondary volume flow; f) a hydraulic valve block which is connected to an outlet of the first pump and has a plurality of sections , wherein the hydraulic fluid can be supplied from the first pump to the working device via a first section , and the hydraulic fluid can be supplied to the additional devices via further sections , characterized in that an outlet of the second pump is connected to a priority valve for dividing the volume flow of the hydraulic fluid, which is connected to the working device via a first line and to the hydraulic valve block via a second line. a) an engine ; b) a first pump for conveying a hydraulic fluid; c) a second pump for conveying a hydraulic fluid; d) a hydraulically driven working device which is supplied with a main volume flow; e) a plurality of hydraulically driven additional devices , which are each supplied via a secondary volume flow; f) a hydraulic valve block which is connected to an outlet of the first pump and has a plurality of sections , wherein the hydraulic fluid can be supplied from the first pump to the working device via a first section , and the hydraulic fluid can be supplied to the additional devices via further sections ,
Fastening sleeve for the assembly of at least two previously drilled structures, said sleeve extending along a main axis between a first and a second open end, said sleeve comprising a substantially cylindrical body and a widened head ; said widened head comprising first mounting surfaces capable of being assembled to a first installation element and of blocking rotation of said first installation element about the main axis, the sleeve comprising a first substantially cylindrical recess extending along the main axis from the first end, said first recess opening at a planar shoulder which is substantially perpendicular to said main axis, the first recess and the planar shoulder being received inside the widened head, the first mounting surfaces being formed by an inner surface of the first recess; the sleeve being characterised in that some of the first mounting surfaces extend from the first end of the sleeve but do not reach the planar shoulder , the first mounting surfaces thus defining a hollow space with said planar shoulder. said widened head comprising first mounting surfaces capable of being assembled to a first installation element and of blocking rotation of said first installation element about the main axis, the sleeve comprising a first substantially cylindrical recess extending along the main axis from the first end, said first recess opening at a planar shoulder which is substantially perpendicular to said main axis, the first recess and the planar shoulder being received inside the widened head, the first mounting surfaces being formed by an inner surface of the first recess; the sleeve being characterised in that some of the first mounting surfaces extend from the first end of the sleeve but do not reach the planar shoulder , the first mounting surfaces thus defining a hollow space with said planar shoulder.
An apparatus for indicating flex of a distal end of a catheter comprising: an elongated shaft ; at least one pull wire connected to a distal end portion of the elongated shaft ; a handle portion comprising a flex activating member , the flex activating member being coupled to the at least one pull wire such that adjustment of the flex activating member causes the distal end portion of the elongated shaft to flex; a slide member connected to the at least one pull wire ; and a flex indicating member ; wherein adjustment of the flex activating member causes the flex indicating member to move relative to the handle portion , and wherein the flex activating member comprises a rotatable member which includes an internally threaded surface portion characterised in that the flex activating member also has an externally threaded surface portion , wherein the internally threaded surface portion is configured to receive the slide member connected to the at least one pull wire , and the externally threaded surface portion is configured to receive an extending portion of the flex indicating member . an elongated shaft ; at least one pull wire connected to a distal end portion of the elongated shaft ; a handle portion comprising a flex activating member , the flex activating member being coupled to the at least one pull wire such that adjustment of the flex activating member causes the distal end portion of the elongated shaft to flex; a slide member connected to the at least one pull wire ; and a flex indicating member ; wherein adjustment of the flex activating member causes the flex indicating member to move relative to the handle portion , and wherein the flex activating member comprises a rotatable member which includes an internally threaded surface portion characterised in that the flex activating member also has an externally threaded surface portion , wherein the internally threaded surface portion is configured to receive the slide member connected to the at least one pull wire , and the externally threaded surface portion is configured to receive an extending portion of the flex indicating member .
A method of operating a medical robot, characterised in that the medical robot comprises a safety controller and at least one member (6-9) which is movable under the control of a control device of the robot (R) by means of a regulated electric drive (E), wherein the regulated electric drive (E) comprises an electric motor (11-14) which is, at least indirectly, mechanically coupled to the member (6-9), an actuating element (15-18) which controls the electric motor (11-14), and a regulating device which controls the actuating element (15-18), wherein the method comprises a robot application-specific dynamic limiting of the value of the command variable (l q ) and/or of the actuating variable (U d,q ) of the regulating device , and comprises the following method steps: - transmitting to the safety controller, in secure technology, a force capacity and a safety requirement which are required for a current application and its process steps, - carrying out path planning by means of the control device of the robot (R) in order to plan a movement of the robot (R), and - limiting the value of the command variable (I q ) and/or of the actuating variable (U d,q ) of the regulating device on the basis of the path planning carried out by the control device , taking into account the required force capacity and the safety requirement. - transmitting to the safety controller, in secure technology, a force capacity and a safety requirement which are required for a current application and its process steps, - carrying out path planning by means of the control device of the robot (R) in order to plan a movement of the robot (R), and - limiting the value of the command variable (I q ) and/or of the actuating variable (U d,q ) of the regulating device on the basis of the path planning carried out by the control device , taking into account the required force capacity and the safety requirement.
All seasons Reversible Plant Saucer for a Potted Plant or Potted Plants comprising: - a first surface confiaured to receive at least one plant pot wherein the first surface does not comprise drain holes or slits and is configured to retain water when in use, - a second surface configured to receive at least one plant pot, wherein the second surface does comprise drain holes or slits and is configured to drain water when in use, wherein, the first surface and the second surface have the same size and shape, and the number of drainage holes or slits is any amount, wherein the plant saucer is configured to be turned over , in use, from a first configuration in which the first surface is arranged for reception of at least one plant pot so as to allow water to be retained for the plant or plants to a second configuration in which the second surface is arranged for reception of at least one plant pot so as to allow water to be drained away from the plant or plants, and vice versa. - a first surface confiaured to receive at least one plant pot wherein the first surface does not comprise drain holes or slits and is configured to retain water when in use, - a second surface configured to receive at least one plant pot, wherein the second surface does comprise drain holes or slits and is configured to drain water when in use, wherein, the first surface and the second surface have the same size and shape, and the number of drainage holes or slits is any amount, wherein the plant saucer is configured to be turned over , in use, from a first configuration in which the first surface is arranged for reception of at least one plant pot so as to allow water to be retained for the plant or plants to a second configuration in which the second surface is arranged for reception of at least one plant pot so as to allow water to be drained away from the plant or plants, and vice versa.
A liquid crystal composition that has negative dielectric anisotropy, and contains at least one polar compound selected from the group of compounds represented by formula as a first additive: wherein, in formula , R 1 is hydrogen, halogen, alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, alkenyl having 2 to 12 carbons, alkyl having 1 to 12 carbons in which at least one hydrogen is replaced by fluorine or chlorine, or alkenyl having 2 to 12 carbons in which at least one hydrogen is replaced by fluorine or chlorine; R 2 is a group represented by -OH, -OR 0 , -NH 2 , -NHR 0 or -N(R 0 ) 2 , in which R 0 is alkyl having 1 to 5 carbons, and in the alkyl, at least one piece of -CH 2 - may be replaced by -O-, and at least one piece of -CH 2 CH 2 - may be replaced by -CH=CH-, and in the groups, at least one hydrogen may be replaced by fluorine; ring A and ring B are independently, 1,4-cyclohexylene, 1,4-cyclohexenylene, 1,4-phenylene, naphthalene-1,2-diyl, naphthalene-1,3-diyl, naphthalene-1,4-diyl, naphthalene-1,5-diyl, naphthalene-1,6-diyl, naphthalene-1,7-diyl, naphthalene-1,8-diyl, naphthalene-2,3-diyl, naphthalene-2,6-diyl, naphthalene-2,7-diyl, tetrahydropyran-2,5-diyl, 1,3-dioxane-2,5-diyl, pyrimidine-2,5-diyl, pyridine-2,5-diyl, fluorene-2,7-diyl, phenanthrene-2,7-diyl or anthracene-2,6-diyl, and in the rings, at least one hydrogen may be replaced by fluorine, chlorine, alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, or alkyl having 1 to 12 carbons in which at least one hydrogen is replaced by fluorine or chlorine; Z 1 is a single bond, -CH 2 CH 2 -, -CH=CH-, -C≡C-, -COO-, -OCO-, -CF 2 O-, -OCF 2 -, -CH 2 O--OCH 2 - or -CF=CF-; Sp 1 and Sp 2 are independently a single bond or alkylene having 1 to 7 carbons, and in the alkylene, at least one piece of -CH 2 - may be replaced by -O-, -COO- or -OCO-, and at least one piece of -CH 2 CH 2 - may be replaced by -CH=CH-, and in the groups, at least one hydrogen may be replaced by fluorine; and a is 0, 1, 2, 3 or 4.
A method for pre-doping a negative electrode active material, the method doping a lithium ion in advance to a negative electrode active material, which is used in an electric device including a positive electrode and a negative electrode, the method comprising: a pre-doping step of doping the lithium ion to a negative electrode active material to be doped to reduce a potential (vs. Li + /Li) of the negative electrode active material to be doped with respect to a lithium metal; and a dedoping step of dedoping the lithium ion from the negative electrode active material doped with the lithium ion in the pre-doping step after the pre-doping step to increase a potential (vs. Li + /Li) of the negative electrode active material with respect to the lithium metal, wherein the negative electrode active material doped with the lithium ion in the pre-doping step is mixed with a negative electrode active material having a potential nobler than that of the negative electrode active material doped with the lithium ion, so that the dedoping step is performed with respect to the negative electrode active material doped with the lithium ion. a pre-doping step of doping the lithium ion to a negative electrode active material to be doped to reduce a potential (vs. Li + /Li) of the negative electrode active material to be doped with respect to a lithium metal; and a dedoping step of dedoping the lithium ion from the negative electrode active material doped with the lithium ion in the pre-doping step after the pre-doping step to increase a potential (vs. Li + /Li) of the negative electrode active material with respect to the lithium metal, wherein the negative electrode active material doped with the lithium ion in the pre-doping step is mixed with a negative electrode active material having a potential nobler than that of the negative electrode active material doped with the lithium ion, so that the dedoping step is performed with respect to the negative electrode active material doped with the lithium ion.
A component supply device which is configured to be arranged adjacent to a mounter which mounts components on a board and which is configured to supply the components to the mounter comprising: a replenishment section provided with a magazine which houses a component carrying member (W2) on which multiple components (W1) are arranged on a base material ; and a conveyance section which conveys the component carrying member (W2) housed in the magazine , wherein the conveyance section is equipped with side surface number one to which the replenishment section is mounted; the replenishment section is slidably mounted with respect to the side surface number one of the conveyance section ; the side surface number one is positioned in direction number one with respect to the center of the conveyance section ; the replenishment section is slidable in a direction number two which is perpendicular to the direction number one; and the replenishment section is slidable in the direction number two within a range in which the replenishment section is not separated from the conveyance section , characterized in that the conveyance section is equipped with side surface number two positioned on the opposite side to the direction number one with respect to the center of the conveyance section ; the side surface number two is configured to be arranged adjacent to the mounter when the component supply device is arranged adjacent to the mounter ; and the replenishment section and the conveyance section can be treated as one body when arranging the component supply device adjacent to the mounter .