mhurhangee/ep-ind-claims huggingface dataset:
A passive surgical manipulator for holding and positioning a surgical instrument, having a frame, a first suspension arm arrangement comprising at least one suspension arm (20, 22, 24, 26) and connecting the frame to a first joint associated with the instrument in an articulated manner, and a second suspension arm arrangement comprising at least one suspension arm and connecting the frame to a second joint associated with the instrument in an articulated manner, the two suspension arm arrangements (16, 18) being implemented so that the first joint is displaceable in a first motion plane and the second joint is displaceable in a second motion plane, the first suspension arm arrangement being connected to the frame at first and second actuating devices (28, 30) and the second suspension arm arrangement being connected to the frame at third and fourth actuating devices (32, 34), characterized in that the first actuating device comprises a first interface, the second actuating device comprises a second interface, the third actuating device comprises a third interface, and the fourth actuating device comprises a fourth interface for temporarily receiving a corresponding interface of a handheld drive unit, so that the handheld drive unit can be coupled temporarily and sequentially to the first, second, third, and fourth interfaces (38, 40, 42, 44) for transferring an actuating motion in order to displace the first and second joints (17, 19) and position the same in a predetermined, specified position. a frame, a first suspension arm arrangement comprising at least one suspension arm (20, 22, 24, 26) and connecting the frame to a first joint associated with the instrument in an articulated manner, and a second suspension arm arrangement comprising at least one suspension arm and connecting the frame to a second joint associated with the instrument in an articulated manner, the two suspension arm arrangements (16, 18) being implemented so that the first joint is displaceable in a first motion plane and the second joint is displaceable in a second motion plane, the first suspension arm arrangement being connected to the frame at first and second actuating devices (28, 30) and the second suspension arm arrangement being connected to the frame at third and fourth actuating devices (32, 34), characterized in that the first actuating device comprises a first interface, the second actuating device comprises a second interface, the third actuating device comprises a third interface, and the fourth actuating device comprises a fourth interface for temporarily receiving a corresponding interface of a handheld drive unit, so that the handheld drive unit can be coupled temporarily and sequentially to the first, second, third, and fourth interfaces (38, 40, 42, 44) for transferring an actuating motion in order to displace the first and second joints (17, 19) and position the same in a predetermined, specified position.
A treatment agent used for forming an image on fabric, comprising: a resin emulsion; a metal salt, a pH adjuster, wherein the pH adjuster is at least one selected from the group consisting of alkali metal hydroxides, alkali metal carbonates, hydroxides of elements in Groups 2 to 12, carbonates of elements in Groups 2 to 12, amines, sodium bicarbonate, potassium carbonate, calcium carbonate, sodium hydroxide, sodium carbonate, triethanolamine, N-butyl diethanolamine, sodium citrate, potassium phosphate, trisodium phosphate, sodium hydrogenphosphate, and sodium dihydrogen pyrophosphate; and a pH of the treatment agent is in a range from 5.5 to 6.5. a resin emulsion; a metal salt, a pH adjuster, wherein the pH adjuster is at least one selected from the group consisting of alkali metal hydroxides, alkali metal carbonates, hydroxides of elements in Groups 2 to 12, carbonates of elements in Groups 2 to 12, amines, sodium bicarbonate, potassium carbonate, calcium carbonate, sodium hydroxide, sodium carbonate, triethanolamine, N-butyl diethanolamine, sodium citrate, potassium phosphate, trisodium phosphate, sodium hydrogenphosphate, and sodium dihydrogen pyrophosphate; and a pH of the treatment agent is in a range from 5.5 to 6.5.
A method for communication between first and second nodes via a communication network, the method comprising: selecting two or more network nodes between the first and second nodes as member nodes of a multi-homing group; assigning one or more communication ports in each of said member nodes to serve as member ports of said multi-homing group; associating each of the member ports with a different, respective communication path between the first and second nodes via the communication network; accepting at each of the two or more member nodes one of two or more replicas of a frame flooded from the first node to the second node, each frame which is replicated having a header comprising header fields; applying a hashing function to one or more of the header fields at each of the two or more member nodes; selecting a single port of a single member node from among the member ports with hashing function; forwarding one replica of the two or more replicas of the frame via the selected port of the single member node over the respective communication path that is associated with the selected port; and discarding the frame which is accepted and replicated by each member port other than the selected port of the single member node, wherein the two or more member nodes are different nodes from the first and second nodes, all member nodes use the same hashing function, and no single member port or member node is common to all of the respective communication paths between the first and second nodes. selecting two or more network nodes between the first and second nodes as member nodes of a multi-homing group; assigning one or more communication ports in each of said member nodes to serve as member ports of said multi-homing group; associating each of the member ports with a different, respective communication path between the first and second nodes via the communication network; accepting at each of the two or more member nodes one of two or more replicas of a frame flooded from the first node to the second node, each frame which is replicated having a header comprising header fields; applying a hashing function to one or more of the header fields at each of the two or more member nodes; selecting a single port of a single member node from among the member ports with hashing function; forwarding one replica of the two or more replicas of the frame via the selected port of the single member node over the respective communication path that is associated with the selected port; and discarding the frame which is accepted and replicated by each member port other than the selected port of the single member node, wherein the two or more member nodes are different nodes from the first and second nodes, all member nodes use the same hashing function, and no single member port or member node is common to all of the respective communication paths between the first and second nodes.
A dew point sensor device, comprising: - a semiconductor substrate, - a Peltier element, - a temperature sensor, - a capacitor at a surface above the substrate, the temperature sensor and the capacitor being arranged so that the temperature of the capacitor can be measured by the temperature sensor, - the capacitor comprising a plurality of capacitor elements each having a capacitance, and - an electronic circuit being configured to determine the capacitances of the capacitor elements individually, characterized in that - the electronic circuit is configured to generate a set of binary digits, each of the binary digits corresponding to one of the capacitor elements and indicating whether the capacitance of the capacitor element is within a predefined range. - a semiconductor substrate, - a Peltier element, - a temperature sensor, - a capacitor at a surface above the substrate, the temperature sensor and the capacitor being arranged so that the temperature of the capacitor can be measured by the temperature sensor, - the capacitor comprising a plurality of capacitor elements each having a capacitance, and - an electronic circuit being configured to determine the capacitances of the capacitor elements individually, characterized in that - the electronic circuit is configured to generate a set of binary digits, each of the binary digits corresponding to one of the capacitor elements and indicating whether the capacitance of the capacitor element is within a predefined range.
Curling iron for curling or waving hair, comprising a handle and an attachment connected thereto, wherein a curling tong is provided which extends in the axial direction of the attachment and which can be activated from the handle, and wherein the curling tong is mounted so as to move in a linear manner in the axial direction of the curling iron and is axially guided by way of a guide located inside the handle, in order to be able to easily remove hairs wound around the attachment, characterised in that the curling tong has a handle part projecting away from the handle, which is provided with a coating, wherein the coating and/or the handle part has a retaining contour, which facilitates a retraction of the curling tong.
A compound represented by the following Chemical Formula I, a racemate or a stereoisomer thereof, or a pharmaceutically acceptable salt thereof: wherein, in the formula, R 1 is methyl; R 2 is tert-butoxy; R 3 is phenyl or chromanyl, wherein the phenyl or chromanyl is unsubstituted or substituted with 1 to 3 substituents each selected from the group consisting of,F, Cl, CN, hydroxy, methyl and methoxy; R 4 and R 5 are all methyl; R 6 is hydrogen, methyl, ethyl, propyl, butyl, propynyl, allyl or -(CH 2) n -R 7; R 7 is F; hydroxy; cyano; trifluoromethyl; dimethylaminocarbonyl; dimethylamino; COOH; C 3-6 cycloalkyl unsubstituted or substituted with 1 or 2 substituents each selected from the group consisting of F, cyano and hydroxyl; phenyl unsubstituted or substituted with 1 to 3 substituents each selected from the group consisting of F, Cl, cyano and methoxy; pyridinyl unsubstituted or substituted with 1 or 2 substituents each selected from the group consisting of F, Cl, methyl and methoxy; pyrimidinyl; pyrazinyl; dioxoisoindolinyl; oxazolyl; furanyl; thiophenyl; pyrrolidinyl; 2-oxopyrrolidinyl; pyrazolyl; or thiazolyl; and n is an integer of 1 to 3. R 1 is methyl; R 2 is tert-butoxy; R 3 is phenyl or chromanyl, wherein the phenyl or chromanyl is unsubstituted or substituted with 1 to 3 substituents each selected from the group consisting of,F, Cl, CN, hydroxy, methyl and methoxy; R 4 and R 5 are all methyl; R 6 is hydrogen, methyl, ethyl, propyl, butyl, propynyl, allyl or -(CH 2) n -R 7; R 7 is F; hydroxy; cyano; trifluoromethyl; dimethylaminocarbonyl; dimethylamino; COOH; C 3-6 cycloalkyl unsubstituted or substituted with 1 or 2 substituents each selected from the group consisting of F, cyano and hydroxyl; phenyl unsubstituted or substituted with 1 to 3 substituents each selected from the group consisting of F, Cl, cyano and methoxy; pyridinyl unsubstituted or substituted with 1 or 2 substituents each selected from the group consisting of F, Cl, methyl and methoxy; pyrimidinyl; pyrazinyl; dioxoisoindolinyl; oxazolyl; furanyl; thiophenyl; pyrrolidinyl; 2-oxopyrrolidinyl; pyrazolyl; or thiazolyl; and n is an integer of 1 to 3.
A method for communicating data between central processing units at a data processing system having a first central processing unit (502; 512; 701) and a second central processing unit (503; 513; 701) coupled together by means of an interconnect (509; 519; 915), each central processing unit includes a respective network interface controller operable (504, 505; 514, 515; 702) to (a) form intermediate data units by at least partially framing data for communication at the data link layer in accordance with a network protocol, and (b) at least partially process at the data link layer in accordance with the network protocol intermediate data units so as to extract the data for communication carried within each intermediate data unit, the method comprising: the first central processing unit (502; 512; 701) passing data for communication to its first network interface controller (504; 514; 702); the first network interface controller (504; 514; 702): forming intermediate data units comprising the data for communication by at least partially framing the data for communication at the data link layer in accordance with the network protocol; encapsulating the intermediate data units of the network protocol in data packets for transmission over the interconnect (509; 519; 915); and transmitting the encapsulated data packets over the interconnect (509; 519; 915) to the second network interface controller (505; 515; 702); the second network interface controller (505; 515; 702): receiving the encapsulated data packets; extracting the intermediate data units from the encapsulated data packets; at least partially processing each intermediate data unit at the data link layer in accordance with the network protocol so as to extract the data carried within each intermediate data unit; and passing the extracted data to an application of the second central processing unit. the first central processing unit (502; 512; 701) passing data for communication to its first network interface controller (504; 514; 702); forming intermediate data units comprising the data for communication by at least partially framing the data for communication at the data link layer in accordance with the network protocol; encapsulating the intermediate data units of the network protocol in data packets for transmission over the interconnect (509; 519; 915); and transmitting the encapsulated data packets over the interconnect (509; 519; 915) to the second network interface controller (505; 515; 702); receiving the encapsulated data packets; extracting the intermediate data units from the encapsulated data packets; at least partially processing each intermediate data unit at the data link layer in accordance with the network protocol so as to extract the data carried within each intermediate data unit; and passing the extracted data to an application of the second central processing unit.
A computerised method for managing entry of orders to an electronic trading system, comprising the steps of: initiating at a server computer a set of queues; receiving, at the server, from one or more parties trading on the electronic trading system, electronic order messages for trading an instrument; and assigning each received message to a random queue within the set of queues; wherein the method is further characterised in that if the message is the first message assigned to the set of queues, the method further comprises the step of initiating, at the server computer, a timer having a random duration between defined minimum and maximum durations for the set of queues; and the method further comprising transferring, at the end of the random duration for the set of queues, messages sequentially from each queue of the set of queues to a matching engine of the electronic trading system and matching compatible order messages at the matching engine. initiating at a server computer a set of queues; receiving, at the server, from one or more parties trading on the electronic trading system, electronic order messages for trading an instrument; and assigning each received message to a random queue within the set of queues; wherein the method is further characterised in that if the message is the first message assigned to the set of queues, the method further comprises the step of initiating, at the server computer, a timer having a random duration between defined minimum and maximum durations for the set of queues; and the method further comprising transferring, at the end of the random duration for the set of queues, messages sequentially from each queue of the set of queues to a matching engine of the electronic trading system and matching compatible order messages at the matching engine.
A method comprising the steps of: establishing, at a first network device, a first port channel that forms part of a joint port channel in coordination with a second network device, the first and second network devices having distributed control planes, wherein the joint port channel combines a plurality of links of the first port channel with a plurality of links of a second port channel of the second network device, wherein each of the links of the joint port channel are communicatively coupled with ports of a third network device; at the first network device, in cooperation with the second network device, assigning a priority to each link in the first port channel such that a set of highest priority links will be about evenly distributed between the first port channel and the second port channel; determining which links of the joint port channel are to be given active status, the determination based at least in part on the priorities assigned to each link of the joint port channel; and communicating, from the first network device to the third network device, the priority of each link of the first port channel; and utilizing, by the first network device in cooperation with the second and third network devices, the joint port channel for data communication. establishing, at a first network device, a first port channel that forms part of a joint port channel in coordination with a second network device, the first and second network devices having distributed control planes, wherein the joint port channel combines a plurality of links of the first port channel with a plurality of links of a second port channel of the second network device, wherein each of the links of the joint port channel are communicatively coupled with ports of a third network device; at the first network device, in cooperation with the second network device, assigning a priority to each link in the first port channel such that a set of highest priority links will be about evenly distributed between the first port channel and the second port channel; determining which links of the joint port channel are to be given active status, the determination based at least in part on the priorities assigned to each link of the joint port channel; and communicating, from the first network device to the third network device, the priority of each link of the first port channel; and utilizing, by the first network device in cooperation with the second and third network devices, the joint port channel for data communication.
Hub of a wind turbine having rotor blades adjustable about their longitudinal axes and mounted to the hub by means of blade bearings formed as antifriction bearings, wherein the outer rings of at least two blade bearings are embodied in one piece with the hub body, such that at least one raceway each of several blade bearings having differently oriented axes of rotation is formed at a concave inner side of several breaches in a common hub body, characterized in that the pendant to such a raceway is formed by another annular raceway at the outer side of a ring which is arranged in the respective recess in the common hub body and which comprises at its end face facing away from the interior of the hub body, several coronally distributed bores for the connection of a rotor blade, whereby at a ring comprising a raceway, a preferably circular row of teeth is additionally provided concentric with the raceway.
A method of compensating data, the method comprising: a) acquiring, by a three-dimensional scanner (910, 920), a plurality of initial scan shots (200-204, 221-224) by scanning a target object onto which a predetermined pattern including a stripe pattern which has stripe-extending direction is projected; b) detecting, by a control unit (920, 930), a non-scan region (HB, VB, u) on the basis of the plurality of initial scan shots (200-204, 221-224); and c) acquiring (S130; S132), by the three-dimensional scanner (910, 920), at least one compensated scan shot (400, 500) by additionally scanning at least one portion of the target object when the non-scan region is detected by the control unit (920, 930); d1) wherein the non-scan region (HB, VB, u) is generated by the stripe-extending direction of the stripe pattern, d2) wherein in the acquiring step c), by the three-dimensional scanner (910, 920), at least one compensated scan shot (400, 500), in a state of setting the target object in the same direction and from the same angle as when the initial scan shot subject to compensation having the non-scan region (HB, VB, u) is acquired in step a), the compensated scan shot (400, 500) is acquired by projecting the stripe pattern which has different stripe-extending direction from the predetermined pattern projected in the acquiring step a) by the three-dimensional scanner (910, 920) of the plurality of initial scan shots (200-204, 221-224). a) acquiring, by a three-dimensional scanner (910, 920), a plurality of initial scan shots (200-204, 221-224) by scanning a target object onto which a predetermined pattern including a stripe pattern which has stripe-extending direction is projected; b) detecting, by a control unit (920, 930), a non-scan region (HB, VB, u) on the basis of the plurality of initial scan shots (200-204, 221-224); and c) acquiring (S130; S132), by the three-dimensional scanner (910, 920), at least one compensated scan shot (400, 500) by additionally scanning at least one portion of the target object when the non-scan region is detected by the control unit (920, 930); d1) wherein the non-scan region (HB, VB, u) is generated by the stripe-extending direction of the stripe pattern, d2) wherein in the acquiring step c), by the three-dimensional scanner (910, 920), at least one compensated scan shot (400, 500), in a state of setting the target object in the same direction and from the same angle as when the initial scan shot subject to compensation having the non-scan region (HB, VB, u) is acquired in step a), the compensated scan shot (400, 500) is acquired by projecting the stripe pattern which has different stripe-extending direction from the predetermined pattern projected in the acquiring step a) by the three-dimensional scanner (910, 920) of the plurality of initial scan shots (200-204, 221-224).