mhurhangee/ep-ind-claims huggingface dataset:
Method for voice over IP communication between a first user (1; 21) equipped with a first communication device and a second user (2; 22) equipped with a second communication device by way of an IP network, the communication involving a first server (11; 31) of the IP network designed to provide a first service and a second server (12; 32) of the IP network designed to provide a second service, the first server being an anonymous call filter server or a legal call interception server, the implementation of a service from among the first service and the second service having the effect of disrupting the other service from the point of view of the first user, the method comprising, during said communication: - implementing the first service; - reinitializing the implementation of the second service so as to limit the effect of the disruption, the implementation of the second service being reinitialized following the transmission of a message (8; 10) from the first server to the second server, said message including a command comprising a request to reinitialize implementation of the second service. - implementing the first service; - reinitializing the implementation of the second service so as to limit the effect of the disruption, the implementation of the second service being reinitialized following the transmission of a message (8; 10) from the first server to the second server, said message including a command comprising a request to reinitialize implementation of the second service.
An external device comprising control circuitry that is configured to send stimulation parameters that define a plurality of stimulation programs (500A, 500B) to an implantable medical device, wherein each stimulation program defines at least one waveform to be formed at a set of electrodes (E1, E2) that are connectable to the implantable medical device; and send an output that specifies a time domain allocation between two or more of the stimulation programs to the implantable medical device, wherein the output causes the implantable medical device to interleave the two or more stimulation programs in time according to the time domain allocation, wherein the external device comprises a display, and wherein the control circuitry is further configured to present a graphical user interface on the display, characterised in that said graphical user interface is configured to enable a user to set the time domain allocation, wherein the graphical user interface comprises a slider and a representation of each of the stimulation programs, wherein the time domain allocation is set according to a position of the slider relative to the representations. send stimulation parameters that define a plurality of stimulation programs (500A, 500B) to an implantable medical device, wherein each stimulation program defines at least one waveform to be formed at a set of electrodes (E1, E2) that are connectable to the implantable medical device; and send an output that specifies a time domain allocation between two or more of the stimulation programs to the implantable medical device, wherein the output causes the implantable medical device to interleave the two or more stimulation programs in time according to the time domain allocation, wherein the external device comprises a display, and wherein the control circuitry is further configured to present a graphical user interface on the display, characterised in that said graphical user interface is configured to enable a user to set the time domain allocation, wherein the graphical user interface comprises a slider and a representation of each of the stimulation programs, wherein the time domain allocation is set according to a position of the slider relative to the representations.
A method, performed by a device, of processing an image, the method comprising: obtaining movement information of the user based on tracking a movement of a user wearing the device, the movement information being about a movement occurring between a previous time when a first image was rendered and a current time when a second image is rendered; identifying a movement path between the previous time and the current time, of the user in a reverse direction; identifying at least one pixel from among a plurality of pixels comprised in the first image, based on applying the movement path in a reverse direction to a location of a target pixel included in the second image; and obtaining a value of the target pixel based on blending a value of the selected at least one pixel with the value of the target pixel according to a preset weight. obtaining movement information of the user based on tracking a movement of a user wearing the device, the movement information being about a movement occurring between a previous time when a first image was rendered and a current time when a second image is rendered; identifying a movement path between the previous time and the current time, of the user in a reverse direction; identifying at least one pixel from among a plurality of pixels comprised in the first image, based on applying the movement path in a reverse direction to a location of a target pixel included in the second image; and obtaining a value of the target pixel based on blending a value of the selected at least one pixel with the value of the target pixel according to a preset weight.
Low-energy house, a. comprising an inner house, an outer house and a space between the inner and the outer house with an air section in between, b. wherein the inner house comprises walls and ceilings that are thermally insulated, c. wherein the outer house comprises an at least partially transparent roof (5, 6), such that the layer of air is heated by the greenhouse effect of the light via the transparent roof (5, 6) and warms up the outer surface of the inner house, characterized in that d. the house further comprises a framework of metal, wood or mineral material which carries both the outer and inner house, e. the inner house is built without vapor proof brakes or vapor proof protection comprising walls and ceilings that are open to vapor diffusion to let the water steam through, f. the walls of the inner house have a sufficient heat accumulation ability to keep a temperature in the inner wall above the dew point of water vapor and to prevent condensation, so that the gas flow that diffuses due to the vapor pressure difference between the inner house and the air section cannot condense within the walls and/or ceilings and g. the outer house is closed down from outer air apart from gaps in the roof. a. comprising an inner house, an outer house and a space between the inner and the outer house with an air section in between, b. wherein the inner house comprises walls and ceilings that are thermally insulated, c. wherein the outer house comprises an at least partially transparent roof (5, 6), such that the layer of air is heated by the greenhouse effect of the light via the transparent roof (5, 6) and warms up the outer surface of the inner house, characterized in that d. the house further comprises a framework of metal, wood or mineral material which carries both the outer and inner house, e. the inner house is built without vapor proof brakes or vapor proof protection comprising walls and ceilings that are open to vapor diffusion to let the water steam through, f. the walls of the inner house have a sufficient heat accumulation ability to keep a temperature in the inner wall above the dew point of water vapor and to prevent condensation, so that the gas flow that diffuses due to the vapor pressure difference between the inner house and the air section cannot condense within the walls and/or ceilings and g. the outer house is closed down from outer air apart from gaps in the roof.
A method for saving power in a symmetrical ad-hoc network including a plurality of stations (4, 6, 8; 12, 14; 20, 22), each of the plurality of stations in said symmetrical ad-hoc network having master capabilities to carry out power save algorithms and each station having a wireless capability to directly communicate with other stations, wherein said master capabilities include an ability to buffer data designated for other stations in the network that are in a power save mode, said method comprising:issuing, from a first station of the plurality of stations, a request to a second station of the plurality of stations to buffer data traffic intended for the first station for a predetermined period; granting the request to buffer data traffic; causing the first station to enter a power save mode for the predetermined period; and enabling the second station to buffer data traffic intended for the first station for the predetermined period.
An implantable neurological device, comprising: a support tube; a cylindrical member (102, 192, 202, 203, 222, 236, 252, 422) coupled with the support tube, the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422) comprising a distal end, a proximal end, and an internal lumen; and a microelectrode film (205, 235, 245, 260, 265) coupled with an outer surface of the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422), the microelectrode film comprising: a plurality of circumferential, segmented electrodes spaced along a longitudinal axis of the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422), each of the plurality of circumferential, segmented electrodes comprising at least three microelectrodes (103, 142, 151, 162, 204, 231, 248, 249, 312, 322, 376, 384, 408, 410, 742, 504, 524, 550, 582, 594, 1045, 1055) at a common location along the longitudinal axis; a plurality of lead contacts; and a plurality of conductive traces (166, 186, 208, 234, 248, 512, 603, 926) to couple the plurality of lead contacts to the plurality of circumferential, segmented electrodes. a support tube; a cylindrical member (102, 192, 202, 203, 222, 236, 252, 422) coupled with the support tube, the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422) comprising a distal end, a proximal end, and an internal lumen; and a microelectrode film (205, 235, 245, 260, 265) coupled with an outer surface of the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422), the microelectrode film comprising: a plurality of circumferential, segmented electrodes spaced along a longitudinal axis of the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422), each of the plurality of circumferential, segmented electrodes comprising at least three microelectrodes (103, 142, 151, 162, 204, 231, 248, 249, 312, 322, 376, 384, 408, 410, 742, 504, 524, 550, 582, 594, 1045, 1055) at a common location along the longitudinal axis; a plurality of lead contacts; and a plurality of conductive traces (166, 186, 208, 234, 248, 512, 603, 926) to couple the plurality of lead contacts to the plurality of circumferential, segmented electrodes. a plurality of circumferential, segmented electrodes spaced along a longitudinal axis of the cylindrical member (102, 192, 202, 203, 222, 236, 252, 422), each of the plurality of circumferential, segmented electrodes comprising at least three microelectrodes (103, 142, 151, 162, 204, 231, 248, 249, 312, 322, 376, 384, 408, 410, 742, 504, 524, 550, 582, 594, 1045, 1055) at a common location along the longitudinal axis; a plurality of lead contacts; and a plurality of conductive traces (166, 186, 208, 234, 248, 512, 603, 926) to couple the plurality of lead contacts to the plurality of circumferential, segmented electrodes.
Installation box comprising a. a box main body which surrounds a first installation space accessible via an opening arranged opposite a box base, and b. a box auxiliary body which protrudes laterally from the said box main body and which, in the fitted state of the installation box, surrounds a laterally protruding second installation space, wherein c. the box auxiliary body is formed to be deformable such that it can be turned inside out into the interior of the first installation space of the box main body, d. wherein the box auxiliary body is at least in part produced from soft-elastic plastic, and e. wherein the box auxiliary body has at least one self-stable position, so that, in the fitted state of the installation box, said installation box is largely dimensionally stable and the box auxiliary body can serve to receive and hold a device or a component. a. a box main body which surrounds a first installation space accessible via an opening arranged opposite a box base, and b. a box auxiliary body which protrudes laterally from the said box main body and which, in the fitted state of the installation box, surrounds a laterally protruding second installation space, wherein c. the box auxiliary body is formed to be deformable such that it can be turned inside out into the interior of the first installation space of the box main body, d. wherein the box auxiliary body is at least in part produced from soft-elastic plastic, and e. wherein the box auxiliary body has at least one self-stable position, so that, in the fitted state of the installation box, said installation box is largely dimensionally stable and the box auxiliary body can serve to receive and hold a device or a component.
A universal buoyancy body for floating substructures, of cylindrical design, comprising at least the following components: - an inner pipe, - an outer pipe, - an upper cover and - a lower cover, wherein the inner pipe is fed through openings in the covers (12, 13) and is connected thereto in the region of the feedthrough, and wherein the inner pipe is arranged within the outer pipe, and wherein the covers (12, 13) are connected on both sides to the ends of the outer pipe, characterized in that the covers (12, 13) are formed as sandwich elements, and the pipes (10, 11) are each formed from at least one steel sheet weft, wherein the sandwich elements each comprise at least two steel plates arranged spaced apart from one another and a filling material arranged between the steel plates. - an inner pipe, - an outer pipe, - an upper cover and - a lower cover, wherein the inner pipe is fed through openings in the covers (12, 13) and is connected thereto in the region of the feedthrough, and wherein the inner pipe is arranged within the outer pipe, and wherein the covers (12, 13) are connected on both sides to the ends of the outer pipe, characterized in that the covers (12, 13) are formed as sandwich elements, and the pipes (10, 11) are each formed from at least one steel sheet weft, wherein the sandwich elements each comprise at least two steel plates arranged spaced apart from one another and a filling material arranged between the steel plates. wherein the inner pipe is fed through openings in the covers (12, 13) and is connected thereto in the region of the feedthrough, and wherein the inner pipe is arranged within the outer pipe, and wherein the covers (12, 13) are connected on both sides to the ends of the outer pipe, characterized in that the covers (12, 13) are formed as sandwich elements, and the pipes (10, 11) are each formed from at least one steel sheet weft, wherein the sandwich elements each comprise at least two steel plates arranged spaced apart from one another and a filling material arranged between the steel plates.
A method of constructing a heat exchanger comprising: providing a plurality of metal walls having a boiling side, a cooling side and at least one bonding surface; applying thermally conductive particles to a boiling side of a plurality of metal components; heating said metal walls with applied thermally conductive particles to a first temperature to integrally bonded said thermally conductive particles together to form an enhanced boiling surface, assembling said plurality of metal walls with a spacing member so that said boiling sides of said plurality of metal walls define a boiling passage and said cooling sides of said plurality of metal walls define a cooling passage and providing layers of metal between said bonding surfaces of said metal walls and adjacent surfaces of the spacing member; and heating the assembly to a second temperature that is less than said first temperature to allow for off-gassing of residual amounts of said thermally conductive particles and then heating the assembly to a third temperature that is about 100°C greater than said second temperature to bond the layers of metal to at least one of the adjacent surfaces of the spacing member and the bonding surfaces of the metal walls. providing a plurality of metal walls having a boiling side, a cooling side and at least one bonding surface; applying thermally conductive particles to a boiling side of a plurality of metal components; heating said metal walls with applied thermally conductive particles to a first temperature to integrally bonded said thermally conductive particles together to form an enhanced boiling surface, assembling said plurality of metal walls with a spacing member so that said boiling sides of said plurality of metal walls define a boiling passage and said cooling sides of said plurality of metal walls define a cooling passage and providing layers of metal between said bonding surfaces of said metal walls and adjacent surfaces of the spacing member; and heating the assembly to a second temperature that is less than said first temperature to allow for off-gassing of residual amounts of said thermally conductive particles and then heating the assembly to a third temperature that is about 100°C greater than said second temperature to bond the layers of metal to at least one of the adjacent surfaces of the spacing member and the bonding surfaces of the metal walls.
A rotary steerable tool comprising: a first tubular member; a plurality of steering pads mounted to the first tubular member; a second tubular member coaxially disposed within the first tubular member; a plurality of gate valves disposed within the second tubular member, each gate valve being disposed adjacent to a corresponding steering pad; and a rotary motor disposed within the second tubular member coupled to the plurality of gate valves. a first tubular member; a plurality of steering pads mounted to the first tubular member; a second tubular member coaxially disposed within the first tubular member; a plurality of gate valves disposed within the second tubular member, each gate valve being disposed adjacent to a corresponding steering pad; and a rotary motor disposed within the second tubular member coupled to the plurality of gate valves.
Charging station for electric vehicles, comprising: - at least one charging cable (212, 312) with at least one charging plug (202, 302), and - at least one cable suspension device for holding the charging cable (212, 312), - wherein the cable suspension device has a distance from a base surface on which an electric vehicle to be charged is arranged which is at least greater than the distance from the base surface to the plug receiving area of the electric vehicle to be charged, - wherein when viewed from the base surface when the charging plug (202, 302) is plugged in, in a connection point region (216, 316) of the charging cable (212, 312) there is a first upper angle (234, 334) which lies between 1° and 90° between the charging cable (212, 312) and a horizontal plane (220, 320) running through the connection point region (216, 316), characterized in that - when viewed from the base surface when the charging plug (202, 302) is plugged in, in the connection point region (216, 316) of the charging cable (212, 312) there is a further upper angle (236, 336) which lies between 5° and 80° between the charging cable (212, 312) and a vertical plane (238, 338) running through the longitudinal axis of a main body (204, 304) of the charging plug (202, 302) and through the connection point region (216, 316) of the charging cable (212, 312). - at least one charging cable (212, 312) with at least one charging plug (202, 302), and - at least one cable suspension device for holding the charging cable (212, 312), - wherein the cable suspension device has a distance from a base surface on which an electric vehicle to be charged is arranged which is at least greater than the distance from the base surface to the plug receiving area of the electric vehicle to be charged, - wherein when viewed from the base surface when the charging plug (202, 302) is plugged in, in a connection point region (216, 316) of the charging cable (212, 312) there is a first upper angle (234, 334) which lies between 1° and 90° between the charging cable (212, 312) and a horizontal plane (220, 320) running through the connection point region (216, 316), - when viewed from the base surface when the charging plug (202, 302) is plugged in, in the connection point region (216, 316) of the charging cable (212, 312) there is a further upper angle (236, 336) which lies between 5° and 80° between the charging cable (212, 312) and a vertical plane (238, 338) running through the longitudinal axis of a main body (204, 304) of the charging plug (202, 302) and through the connection point region (216, 316) of the charging cable (212, 312).
A robot cleaner comprising: a main body comprising a suction motor; a foreign material storage unit separably disposed within the main body, the foreign material storage unit storing foreign materials contained in sucked air; and a foreign material cover for selectively shielding one side of the foreign material storage unit, characterized in that the robot cleaner further comprising a detection unit (227, 360) disposed on another side of the foreign material storage unit, the detection unit (227, 360) configured to detect whether the foreign material cover is opened. a main body comprising a suction motor; a foreign material storage unit separably disposed within the main body, the foreign material storage unit storing foreign materials contained in sucked air; and a foreign material cover for selectively shielding one side of the foreign material storage unit, characterized in that the robot cleaner further comprising a detection unit (227, 360) disposed on another side of the foreign material storage unit, the detection unit (227, 360) configured to detect whether the foreign material cover is opened.
A radio wave absorber comprising: a magnetic powder; and a binder, wherein a volume filling rate of the magnetic powder in the radio wave absorber is 10% by volume or more and 35% by volume or less, the thickness of the radio wave absorber is 2.0 mm or more and 10.0 mm or less, the magnetic powder includes a powder of a hexagonal ferrite and/or a powder of ε-iron oxide, the mode diameter of the magnetic powder is 5 μm or more and less than 10 μm, a transmission attenuation amount is 8.0 dB or more, and a reflection attenuation amount is 8.0 dB or more. a magnetic powder; and a binder, wherein a volume filling rate of the magnetic powder in the radio wave absorber is 10% by volume or more and 35% by volume or less, the thickness of the radio wave absorber is 2.0 mm or more and 10.0 mm or less, the magnetic powder includes a powder of a hexagonal ferrite and/or a powder of ε-iron oxide, the thickness of the radio wave absorber is 2.0 mm or more and 10.0 mm or less, the magnetic powder includes a powder of a hexagonal ferrite and/or a powder of ε-iron oxide, the mode diameter of the magnetic powder is 5 μm or more and less than 10 μm, a transmission attenuation amount is 8.0 dB or more, and a reflection attenuation amount is 8.0 dB or more.
An alloy casting material, consisting of: 97 to 99 parts by weight of Al and Si, which is consisting of 6 to 8 parts by weight of Si and 89 to 93 parts by weight of Al; 0.25 to 0.4 parts by weight of Cu; and 0.15 to 1.35 parts by weight of a combination of at least two of Mg, Ni, and Ti. 97 to 99 parts by weight of Al and Si, which is consisting of 6 to 8 parts by weight of Si and 89 to 93 parts by weight of Al; 0.25 to 0.4 parts by weight of Cu; and 0.15 to 1.35 parts by weight of a combination of at least two of Mg, Ni, and Ti.