mhurhangee/ep-ind-claims huggingface dataset:
A method of monitoring or assessing the motion of the limbs of a human or animal body when performing repetitive cyclic activity, including the step of securing a respective sensor measurement unit to each of the limbs (11;14) to be monitored, each sensor measurement unit being associated with a receiver for data generated thereby, characterised in that the method comprises the steps of: - synchronising the operation of the sensor measurement units; and - assembling and analysing the data from the sensor measurement units to determine the relative phase of the limb movements in the course of the performance of the repetitive cyclic activity using cross-correlation techniques. - synchronising the operation of the sensor measurement units; and - assembling and analysing the data from the sensor measurement units to determine the relative phase of the limb movements in the course of the performance of the repetitive cyclic activity using cross-correlation techniques.
A mobile terminal, comprising: a main body comprising a front side and a rear side; a plurality of cameras (221a, 221b) located on the rear side, wherein the plurality of cameras (221a, 221b) include a first camera and a second camera; a display; and a controller configured to: cause the display to display a first preview image of a first image received from the first camera, wherein the first preview image includes an image object corresponding to a specific subject; select the image object in response to a touch input applied to the first preview image;; capture the first image as a still image in response to an image capture request; control the second camera to capture video that includes the specific subject, wherein the second camera captures the video, for a defined period of time, in further response to the image capture request; and cause the display to display a synthesized image comprising a first area and a second area, wherein the first area comprises portions of the captured first image, and the second area comprises a portion of the captured video including the selected image object corresponding to the specific subject. a main body comprising a front side and a rear side; a plurality of cameras (221a, 221b) located on the rear side, wherein the plurality of cameras (221a, 221b) include a first camera and a second camera; a display; and a controller configured to: cause the display to display a first preview image of a first image received from the first camera, wherein the first preview image includes an image object corresponding to a specific subject; select the image object in response to a touch input applied to the first preview image;; capture the first image as a still image in response to an image capture request; control the second camera to capture video that includes the specific subject, wherein the second camera captures the video, for a defined period of time, in further response to the image capture request; and cause the display to display a synthesized image comprising a first area and a second area, wherein the first area comprises portions of the captured first image, and the second area comprises a portion of the captured video including the selected image object corresponding to the specific subject. cause the display to display a first preview image of a first image received from the first camera, wherein the first preview image includes an image object corresponding to a specific subject; select the image object in response to a touch input applied to the first preview image;; capture the first image as a still image in response to an image capture request; control the second camera to capture video that includes the specific subject, wherein the second camera captures the video, for a defined period of time, in further response to the image capture request; and cause the display to display a synthesized image comprising a first area and a second area, wherein the first area comprises portions of the captured first image, and the second area comprises a portion of the captured video including the selected image object corresponding to the specific subject.
A positive electrode material comprising: a first positive electrode active material represented by Formula 1; and a second positive electrode active material in a form of a single particle which is represented by Formula 2, wherein an amount of lithium impurities on a surface of the second positive electrode active material is 0.14 wt% or less based on a total weight of the second positive electrode active material, and the manganese (Mn) included in the second positive electrode active material has a concentration gradient gradually decreasing from the center of the particle to the surface thereof: [Formula 1] LiCo 1-a M 1 a O 2 [Formula 2] LiNi b CO c Mn d M 2 O 2 wherein, in Formula 1, M 1 comprises at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), and zirconium (Zr), and 0≤a≤0.2, and wherein, in Formula 2, M 2 comprises at least one selected from the group consisting of Al, Ti, Mg, Zr, yttrium, strontium (Sr), and boron, and 0<b≤0.6, 0<c≤0.35, 0<d≤0.35, and 0≤e≤0.1. a first positive electrode active material represented by Formula 1; and a second positive electrode active material in a form of a single particle which is represented by Formula 2, wherein an amount of lithium impurities on a surface of the second positive electrode active material is 0.14 wt% or less based on a total weight of the second positive electrode active material, and the manganese (Mn) included in the second positive electrode active material has a concentration gradient gradually decreasing from the center of the particle to the surface thereof: [Formula 1] LiCo 1-a M 1 a O 2 [Formula 2] LiNi b CO c Mn d M 2 O 2 wherein, in Formula 1, M 1 comprises at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), and zirconium (Zr), and 0≤a≤0.2, and wherein, in Formula 2, M 2 comprises at least one selected from the group consisting of Al, Ti, Mg, Zr, yttrium, strontium (Sr), and boron, and 0<b≤0.6, 0<c≤0.35, 0<d≤0.35, and 0≤e≤0.1.
An update processing method for updating a MAC key used to generate a message authentication code, MAC, in an in-vehicle network system including a plurality of electronic control units (2100a-2100d) that communicate a data frame having a MAC added thereto with one another via a bus (2200a; 2200b) in accordance with CAN, Controller Area Network, protocol, the method comprising: the detection step of detecting a state of a vehicle having the in-vehicle network system mounted therein; and the update step of updating a MAC key used to generate the message authentication code under the condition that the state of the vehicle detected in the detection step is a predetermined state; the method characterized in that the in-vehicle network system includes a plurality of buses (2200a, 2200b), wherein in the update step, each of at least one of the plurality of electronic control units (2100a-2100d) updates the MAC key held and used by the electronic control unit, and wherein the predetermined state serving as the update condition is determined in accordance with the bus (2200a, 2200b) to which the electronic control unit is connected. the detection step of detecting a state of a vehicle having the in-vehicle network system mounted therein; and the update step of updating a MAC key used to generate the message authentication code under the condition that the state of the vehicle detected in the detection step is a predetermined state; the method characterized in that the in-vehicle network system includes a plurality of buses (2200a, 2200b), wherein in the update step, each of at least one of the plurality of electronic control units (2100a-2100d) updates the MAC key held and used by the electronic control unit, and wherein the predetermined state serving as the update condition is determined in accordance with the bus (2200a, 2200b) to which the electronic control unit is connected.
Method for protecting the functioning of a voltage maintenance device formed by supercapacitors and a DC to DC converter, said device being used for starting or restarting a thermal engine of a vehicle, the vehicle comprising a battery connected to an electrical machine as well as to said device, said device being connected, by a multiplexed network, to the electrical machine and to a computer, the method being characterised in that said voltage maintenance device can be activated by putting the supercapacitors in series with the battery only if it has previously received, through the multiplexed network, an activation-enable message (16, 18).
An optical member comprising: a laminated body being formed on a base material surface and having a porous layer or a layer having an uneven structure on a surface, wherein the laminated body has a polymer layer having a layer thickness of 10 nm or more and 150 nm or less between the porous layer or the layer having an uneven structure and the base material; characterized in that the polymer layer contains a maleimide copolymer; and the maleimide copolymer has a maleimide copolymerization ration of 0.5 or more and 0.97 or less. a laminated body being formed on a base material surface and having a porous layer or a layer having an uneven structure on a surface, wherein the laminated body has a polymer layer having a layer thickness of 10 nm or more and 150 nm or less between the porous layer or the layer having an uneven structure and the base material; characterized in that the polymer layer contains a maleimide copolymer; and the maleimide copolymer has a maleimide copolymerization ration of 0.5 or more and 0.97 or less.
A particle beam therapy system comprising: an accelerator adapted to accelerate and emit a particle beam; an irradiation nozzle that has two electromagnets (21a, 21b) whose scanning directions are different from each other, adapted to irradiate in a predetermined direction a particle beam emitted from the accelerator; an irradiation control unit adapted to control operation of the irradiation nozzle in such a way that each of a plurality of spots set in a planar direction (Ass) in an irradiation subject is sequentially irradiated with a particle beam of a predetermined dose; characterised by: a control unit adapted to control switching on and off the emission of a particle beam from the accelerator, wherein the irradiation control unit is adapted to make the irradiation nozzle scan the particle beam onto a predetermined area (A P) set in the planar-direction (A SS) in the irradiation subject, so as to dilute a dose in preventing the dose from converging onto a specific portion, in a predetermined period after a time point (T F) when emission of the particle beam is switched from ON to OFF, or in a period from the time point (T F) when emission of the particle beam is switched from ON to OFF to a time point when the particle beam is cut off. an accelerator adapted to accelerate and emit a particle beam; an irradiation nozzle that has two electromagnets (21a, 21b) whose scanning directions are different from each other, adapted to irradiate in a predetermined direction a particle beam emitted from the accelerator; an irradiation control unit adapted to control operation of the irradiation nozzle in such a way that each of a plurality of spots set in a planar direction (Ass) in an irradiation subject is sequentially irradiated with a particle beam of a predetermined dose; characterised by: a control unit adapted to control switching on and off the emission of a particle beam from the accelerator, wherein the irradiation control unit is adapted to make the irradiation nozzle scan the particle beam onto a predetermined area (A P) set in the planar-direction (A SS) in the irradiation subject, so as to dilute a dose in preventing the dose from converging onto a specific portion, in a predetermined period after a time point (T F) when emission of the particle beam is switched from ON to OFF, or in a period from the time point (T F) when emission of the particle beam is switched from ON to OFF to a time point when the particle beam is cut off. a control unit adapted to control switching on and off the emission of a particle beam from the accelerator, wherein the irradiation control unit is adapted to make the irradiation nozzle scan the particle beam onto a predetermined area (A P) set in the planar-direction (A SS) in the irradiation subject, so as to dilute a dose in preventing the dose from converging onto a specific portion, in a predetermined period after a time point (T F) when emission of the particle beam is switched from ON to OFF, or in a period from the time point (T F) when emission of the particle beam is switched from ON to OFF to a time point when the particle beam is cut off.
A random access apparatus configured in a user equipment, UE,, the random access apparatus comprising: a processor circuit; and a transceiver configured to: support multiple transmission time intervals, TTIs; transmit to a base station a preamble for requesting random access via a first message using a TTI among the multiple TTIs; and receive a random access response transmitted by the base station via a second message, wherein a random access parameter is calculated based on a slot position for transmitting the preamble of the first message. a processor circuit; and a transceiver configured to: support multiple transmission time intervals, TTIs; transmit to a base station a preamble for requesting random access via a first message using a TTI among the multiple TTIs; and receive a random access response transmitted by the base station via a second message, wherein a random access parameter is calculated based on a slot position for transmitting the preamble of the first message. support multiple transmission time intervals, TTIs; transmit to a base station a preamble for requesting random access via a first message using a TTI among the multiple TTIs; and receive a random access response transmitted by the base station via a second message, wherein a random access parameter is calculated based on a slot position for transmitting the preamble of the first message.
Gripper device for picking up a tool from a tool magazine (100, 100') and for transferring the tool to a processing unit, in particular a processing spindle, with: a base body and a gripper mechanism (13, 15) connected with the base body, wherein the gripper mechanism (13, 15) is configured to establish at least a force-locking connection with an outer circumference of a tool holder of a tool, wherein the gripper mechanism has a support element which is fastened to the base body or formed integrally with the base body, wherein the gripper mechanism has two gripper clamps which have a gripper section for gripping the outer circumference of a tool holder, characterised in that the gripper clamps have a reduced thickness in the region of an end section. a base body and a gripper mechanism (13, 15) connected with the base body, wherein the gripper mechanism (13, 15) is configured to establish at least a force-locking connection with an outer circumference of a tool holder of a tool, wherein the gripper mechanism has a support element which is fastened to the base body or formed integrally with the base body, wherein the gripper mechanism has two gripper clamps which have a gripper section for gripping the outer circumference of a tool holder, characterised in that the gripper clamps have a reduced thickness in the region of an end section.
A compound, or a pharmaceutically acceptable salt thereof, wherein the compound is (2 S,3 R,4 S,5 S)-3- tert -butyl-4-{[2-methoxy-5-(trifluoromethyl)phenyl]methoxy}-5-(2-methylphenyl)-1-[(2 S)-oxane-2-carbonyl]pyrrolidine-2-carboxylic acid.
An apparatus for magnetic cooling, comprising: a first region for magnetizing two or more magnetic elements (120-1, 120-2, 120-3) of different sizes; and a magnet device at the first region, wherein the magnet device is configured to magnetize the two or more elements (120-1, 120-2, 120-3); the apparatus being characterized by including two or more second regions (130-1, 130-2, 130-3); and two or more channels (140-1, 140-2, 140-3) having different sizes, wherein each channel of the two or more channels (140-1, 140-2, 140-3) connects the first region and a respective second region of the two or more second regions (130-1, 130-2, 130-3), and wherein the two or more channels (140-1, 140-2, 140-3) are configured for a transport of the two or more magnetic elements (120-1, 120-2, 120-3) from the first region to the two or more second regions (130-1, 130-2, 1 130-3). a first region for magnetizing two or more magnetic elements (120-1, 120-2, 120-3) of different sizes; and a magnet device at the first region, wherein the magnet device is configured to magnetize the two or more elements (120-1, 120-2, 120-3); the apparatus being characterized by including two or more second regions (130-1, 130-2, 130-3); and two or more channels (140-1, 140-2, 140-3) having different sizes, wherein each channel of the two or more channels (140-1, 140-2, 140-3) connects the first region and a respective second region of the two or more second regions (130-1, 130-2, 130-3), and wherein the two or more channels (140-1, 140-2, 140-3) are configured for a transport of the two or more magnetic elements (120-1, 120-2, 120-3) from the first region to the two or more second regions (130-1, 130-2, 1 130-3).
A DNA molecule having the nucleotide sequence SEQ ID NO 1 with a single nucleotide polymorphism selected from the group consisting of T85A, C130A, G159A, A160C, G169A, G222C, G226A, G227C, T228C, C237T, C285T, C286T, G298A, A299C, C303T, C309G, T318C, G320A, C333G, G348C, C369G, C409T, C411T, T420C, A421C, A423C, T425C, G522C, C525G, C618T, G657A, G662A, G684C, C690A, G691A, G693A, C703A, A710C, G711A, G743A, G750A, C768T, G798C, G801A, C804G, G834C, A865G, G879C, G918A, A994T, C1047A, A1051G, G1052A, G1053A, C1090T, G1098C, C1185G, A1278C, G1370C, C1414G, C1425A, C1428T, G1443C, C1449T and G1464A.
A method, comprising: discovering, by a network monitoring apparatus, nodes in a network; collecting a list of internet protocol, IP, addresses, media access control, MAC, addresses, domain name system, DNS, names, and sysnames for each of the nodes discovered in the network; comparing the IP addresses of each of the discovered nodes with IP addresses of monitored nodes and previously discovered nodes; comparing the MAC addresses of each of the discovered nodes with MAC addresses of the monitored nodes and the previously discovered nodes; comparing the DNS names of each of the discovered nodes with DNS names of the monitored nodes and the previously discovered nodes; comparing the sysnames of each of the discovered nodes with sysnames of the monitored nodes and the previously discovered nodes; determining duplicate nodes that are duplicates of the previously discovered nodes and/or the monitored nodes based on the comparison of the IP addresses, MAC addresses, DNS names, and sysnames, wherein, for the determining, each of the discovered nodes is assigned a node ID, and the method further comprises assigning a MatchIndex to each node ID, the MatchIndex indicating a likelihood of a match between the discovered node and any of the monitored nodes and the previously discovered nodes. discovering, by a network monitoring apparatus, nodes in a network; collecting a list of internet protocol, IP, addresses, media access control, MAC, addresses, domain name system, DNS, names, and sysnames for each of the nodes discovered in the network; comparing the IP addresses of each of the discovered nodes with IP addresses of monitored nodes and previously discovered nodes; comparing the MAC addresses of each of the discovered nodes with MAC addresses of the monitored nodes and the previously discovered nodes; comparing the DNS names of each of the discovered nodes with DNS names of the monitored nodes and the previously discovered nodes; comparing the sysnames of each of the discovered nodes with sysnames of the monitored nodes and the previously discovered nodes; determining duplicate nodes that are duplicates of the previously discovered nodes and/or the monitored nodes based on the comparison of the IP addresses, MAC addresses, DNS names, and sysnames, wherein, for the determining, each of the discovered nodes is assigned a node ID, and the method further comprises assigning a MatchIndex to each node ID, the MatchIndex indicating a likelihood of a match between the discovered node and any of the monitored nodes and the previously discovered nodes.
A modular building block type chassis, comprising: a plurality of panels, for defining the external periphery of the chassis, and having an embedding panel separately disposed at both ends of the panels, and the plurality of panels being boards with an equal thickness and an equal height; a plurality of connecting elements, each having an embedding groove vertically formed and separately disposed on both sides of the connecting element for embedding and coupling the embedding panel, at least one fixing pillar installed on an internal side of the connecting element, and a fixing hole formed on the fixing pillar; at least one upper case, having a fixing hole formed at a corner of the upper case and fixed to the fixing hole of the fixing pillar by a coupling element; at least one lower case, having a fixing hole formed at a corner of the lower case and fixed to the fixing hole of the fixing pillar by a coupling element. a plurality of panels, for defining the external periphery of the chassis, and having an embedding panel separately disposed at both ends of the panels, and the plurality of panels being boards with an equal thickness and an equal height; a plurality of connecting elements, each having an embedding groove vertically formed and separately disposed on both sides of the connecting element for embedding and coupling the embedding panel, at least one fixing pillar installed on an internal side of the connecting element, and a fixing hole formed on the fixing pillar; at least one upper case, having a fixing hole formed at a corner of the upper case and fixed to the fixing hole of the fixing pillar by a coupling element; at least one lower case, having a fixing hole formed at a corner of the lower case and fixed to the fixing hole of the fixing pillar by a coupling element.
Method for treating laundry in a washing machine by means of a washing program, the washing machine having a water supply and a control facility, wherein the washing program is stopped, at least at a point in time t n, for a respective predefined period of time Δt n, wherein n is greater than or equal to 1, to enable a controlling engagement by a user of the washing machine, and is continued once the engagement has taken place or if the engagement fails to take place after the period of time Δt n has elapsed, characterised in that the point in time t n is automatically predefined by means of the control facility during the method on the basis of the sensor signal, measured by at least one sensor in the washing machine, of the control facility.