mhurhangee/ep-ind-claims huggingface dataset:
Display device with a holding device that can be fitted onto the head of a user, a multifunctional glass that is attached to the holding device and through which the user can perceive the actual surroundings when the holding device is fitted on and which has a first and second coupling-out section (9, 7) as well as a coupling-in section, an image generation module which generates an image and couples it into the multifunctional glass via the coupling-in section such that it is guided in the multifunctional glass to the first coupling-out section which effects a deflection of the image in the direction of the user when the holding device is fitted on his head such that the user can perceive the image in superimposition with the actual surroundings, as well as a control unit for the image generation module, characterized in that the display device has a detector that is connected to the control unit and that measures the intensity of ambient light coupled via the first coupling-out section into the multifunctional glass, guided in the latter to the second coupling-out section and coupled out of the multifunctional glass via the second coupling-out section, wherein the control unit controls the brightness during the generation of the image by means of the image generation module depending on the intensity measured by the detector.
A method comprising: identifying, by a computing device comprising at least two processors and at least two transceiver components, (303, 304), at least two signals at two or more communication interfaces in accordance with one or more communication standards; selecting, by the computing device, one or more available frequency segments from a frequency spectrum database; transforming, by the computing device, the at least two signals into at least two converted signals for transmission on a backhaul link, the backhaul link being established for two-way data communication using the one or more available frequency segments; and causing to send, by the computing device, the at least two converted signals using the one or more available frequency segments; wherein transforming the at least two signals further includes multiplexing a first signal of the at least two signals and a second signal of the at least two signals, wherein the first signal is received on a first communication interface of the two or more communication interfaces in accordance with a first communication standard and the second signal is received on a second communication interface of the two or more communication interfaces in accordance with a second communication standard. identifying, by a computing device comprising at least two processors and at least two transceiver components, (303, 304), at least two signals at two or more communication interfaces in accordance with one or more communication standards; selecting, by the computing device, one or more available frequency segments from a frequency spectrum database; transforming, by the computing device, the at least two signals into at least two converted signals for transmission on a backhaul link, the backhaul link being established for two-way data communication using the one or more available frequency segments; and causing to send, by the computing device, the at least two converted signals using the one or more available frequency segments;
Work surface for controlled laboratory environment comprises: a. top plate in glass or other rigid, material that is transparent, non-porous, chemically resistant; b. touch detection plate, in particular multi-touch, under the top plate; c. supplementary plate in glass, resin or other material that is rigid, non-porous, chemically resistant, under the top plate; d. supporting structure (4, 8) of the work surface and its components; e. screen, placed under the touch detection plate; f. enclosure, substantially tight to the agents present in the controlled laboratory environment, containing the touch detection plate and the screen; wherein the supplementary plate is placed in the top plate area not covered by the touch detection plate. a. top plate in glass or other rigid, material that is transparent, non-porous, chemically resistant; b. touch detection plate, in particular multi-touch, under the top plate; c. supplementary plate in glass, resin or other material that is rigid, non-porous, chemically resistant, under the top plate; d. supporting structure (4, 8) of the work surface and its components; e. screen, placed under the touch detection plate; f. enclosure, substantially tight to the agents present in the controlled laboratory environment, containing the touch detection plate and the screen;
An interlayer film for a laminated glass, having a large number of protrusions, the shapes of which include spherical or blockish shapes, on at least one surface, wherein the protrusions each have an arithmetical mean height Sa on the surface of 200 nm or more and 3,000 nm or less as measured in conformity with ISO 25178, the surface having an arrangement density of the protrusions of 5 protrusions/mm 2 or more measured according to the description, and the protrusions having an area ratio as measured according to the description of 15% to 75% to the surface. wherein the protrusions each have an arithmetical mean height Sa on the surface of 200 nm or more and 3,000 nm or less as measured in conformity with ISO 25178, the surface having an arrangement density of the protrusions of 5 protrusions/mm 2 or more measured according to the description, and the protrusions having an area ratio as measured according to the description of 15% to 75% to the surface.
A microfluidic channel device including a microfluidic channel, the microfluidic channel device comprising: a substrate including a substrate surface; an array of drive electrode assemblies disposed upon the substrate surface, the drive electrode assemblies being arranged along a path, each drive electrode assembly including: a drive electrode layer including a first drive electrode surface configured in contact with the substrate surface and including a second drive electrode layer surface; a dielectric layer including a first dielectric layer surface configured in contact with the second drive electrode surface and including a second dielectric layer surface and a chromatographic stationary phase layer including a first stationary phase layer surface configured in contact with the second dielectric layer surface and including a second stationary phase layer surface; and a reference electrode configured to face the second stationary phase layer surface of the drive electrode assemblies and separated from the substrate surface by a distance defining the microfluidic channel. a substrate including a substrate surface; an array of drive electrode assemblies disposed upon the substrate surface, the drive electrode assemblies being arranged along a path, each drive electrode assembly including: a drive electrode layer including a first drive electrode surface configured in contact with the substrate surface and including a second drive electrode layer surface; a dielectric layer including a first dielectric layer surface configured in contact with the second drive electrode surface and including a second dielectric layer surface and a chromatographic stationary phase layer including a first stationary phase layer surface configured in contact with the second dielectric layer surface and including a second stationary phase layer surface; and a drive electrode layer including a first drive electrode surface configured in contact with the substrate surface and including a second drive electrode layer surface; a dielectric layer including a first dielectric layer surface configured in contact with the second drive electrode surface and including a second dielectric layer surface and a chromatographic stationary phase layer including a first stationary phase layer surface configured in contact with the second dielectric layer surface and including a second stationary phase layer surface; and a reference electrode configured to face the second stationary phase layer surface of the drive electrode assemblies and separated from the substrate surface by a distance defining the microfluidic channel.
Method for production of a cooling element, in particular a microcooling element, comprising - providing at least one first metal layer and at least one second metal layer, - oxidizing the at least one first metal layer and/or the at least one second metal layer, - structuring the at least one first metal layer and/or the at least one second metal layer to form at least one recess (21, 22), - joining the at least one first metal layer and the at least one second metal layer to form the cooling element, in particular by bonding, wherein in a joined state at least a partial section of a cooling channel is formed in the cooling element by the recess (21, 22) in the at least one first metal layer and/or the at least one second metal layer, and wherein, prior to joining, an inner side of the recess (21, 22) is provided at least in sections, preferably completely, freed from an oxidized surface, characterized in that an oxidized surface is removed after oxidizing. - providing at least one first metal layer and at least one second metal layer, - oxidizing the at least one first metal layer and/or the at least one second metal layer, - structuring the at least one first metal layer and/or the at least one second metal layer to form at least one recess (21, 22), - joining the at least one first metal layer and the at least one second metal layer to form the cooling element, in particular by bonding, wherein in a joined state at least a partial section of a cooling channel is formed in the cooling element by the recess (21, 22) in the at least one first metal layer and/or the at least one second metal layer,
Method of manufacturing a semiconductor component (170, 180), comprising the successive steps of: a) forming a stack comprising a first semiconductor layer made of a III-N compound, a second conductive layer coating the first layer, and a third hard mask layer coating the second layer; b) forming a trench crossing the third and second layers and stopping on the first layer, said trench laterally delimiting a contact metallization in the second layer; c) forming in said trench a metal spacer made of a material different from that of the second layer, in contact with the sides of the third and second layers; and d) continuing said trench through at least a portion of the thickness of the first layer, characterized in that step c) comprises: - a step of deposition of a metal layer made of said material different from that of the second layer, on the upper surface of the third layer and on the lateral walls and at the bottom of said trench; then - a step of vertical anisotropic etching of the metal layer, at the end of which only the vertical portions of the metal layer coating the lateral walls of said trench are kept. a) forming a stack comprising a first semiconductor layer made of a III-N compound, a second conductive layer coating the first layer, and a third hard mask layer coating the second layer; b) forming a trench crossing the third and second layers and stopping on the first layer, said trench laterally delimiting a contact metallization in the second layer; c) forming in said trench a metal spacer made of a material different from that of the second layer, in contact with the sides of the third and second layers; and d) continuing said trench through at least a portion of the thickness of the first layer, characterized in that step c) comprises: - a step of deposition of a metal layer made of said material different from that of the second layer, on the upper surface of the third layer and on the lateral walls and at the bottom of said trench; then - a step of vertical anisotropic etching of the metal layer, at the end of which only the vertical portions of the metal layer coating the lateral walls of said trench are kept. - a step of deposition of a metal layer made of said material different from that of the second layer, on the upper surface of the third layer and on the lateral walls and at the bottom of said trench; then - a step of vertical anisotropic etching of the metal layer, at the end of which only the vertical portions of the metal layer coating the lateral walls of said trench are kept.
A network connector comprising: an insulative seat; multiple conductive terminals, spacedly arranged and fixed on the insulative seat; a control circuit module, comprising a circuit board and at least one electronic element, the circuit board comprising multiple first contacts and multiple second contacts electrically connected with the first contacts, each first contact disposed on an end of the circuit board, each second contact arranged spacedly corresponding to each first contact, the insulative seat fixed on the circuit board, and the electronic element fixed on the circuit board and comprising multiple conductive pins; and a ground sheet, electrically connected to the circuit board, comprising a positioning portion and multiple arm portions connected with the positioning portion, the positioning portion disposed between each first contact and each second contact, and each arm portion is extended toward each first contact; each conductive terminal electrically connected with each first contact; each conductive pin electrically connected with each second contact; and the network connector further comprises a metal casing covering the insulative seat, each conductive terminal, the control circuit module and the ground sheet, and contacting the ground sheet, characterized in that each arm portion is extended along two sides of the circuit board and passes through a position of each first contact. an insulative seat; multiple conductive terminals, spacedly arranged and fixed on the insulative seat; a control circuit module, comprising a circuit board and at least one electronic element, the circuit board comprising multiple first contacts and multiple second contacts electrically connected with the first contacts, each first contact disposed on an end of the circuit board, each second contact arranged spacedly corresponding to each first contact, the insulative seat fixed on the circuit board, and the electronic element fixed on the circuit board and comprising multiple conductive pins; and a ground sheet, electrically connected to the circuit board, comprising a positioning portion and multiple arm portions connected with the positioning portion, the positioning portion disposed between each first contact and each second contact, and each arm portion is extended toward each first contact; each conductive terminal electrically connected with each first contact; each conductive pin electrically connected with each second contact; and the network connector further comprises a metal casing covering the insulative seat, each conductive terminal, the control circuit module and the ground sheet, and contacting the ground sheet,
A substantially spherical microsphere, wherein the microsphere comprises: a polymeric material in microsphere form having a diameter ranging from 1 micrometer to 2000 micrometers, wherein the polymeric material is hydrophilic and non-biodegradable, wherein the polymeric material comprises one or more polymerized monomer; and a chelating agent polymerized with the one or more polymerized monomer, wherein the chelating agent is configured to chelate a radioisotope, and wherein the chelating agent comprises; wherein n is between 1 and 18, inclusive; Xa and Xb may independently be O, S or N; and R may be alkyl or H. a polymeric material in microsphere form having a diameter ranging from 1 micrometer to 2000 micrometers, wherein the polymeric material is hydrophilic and non-biodegradable, wherein the polymeric material comprises one or more polymerized monomer; and a chelating agent polymerized with the one or more polymerized monomer, wherein the chelating agent is configured to chelate a radioisotope, and wherein the chelating agent comprises; wherein n is between 1 and 18, inclusive; Xa and Xb may independently be O, S or N; and R may be alkyl or H.
A leather coating structure assembled onto an upper cover of a portable electronic apparatus, wherein the surface of the upper cover forms the user operating panel region, comprising: a supporting plate having a top surface and a bottom surface, wherein the bottom surface is assembled onto the upper cover of the portable electronic apparatus; and a leather coating layer attached to the supporting plate and having a top portion covering the top surface of supporting plate and an extended portion extending from edges of the top portion and being folded over the edges of the supporting plate to cover a portion of the bottom surface of supporting plate; the extended portion of the leather coating layer being on the inner side of the supporting plate when assembled on the upper cover. a supporting plate having a top surface and a bottom surface, wherein the bottom surface is assembled onto the upper cover of the portable electronic apparatus; and a leather coating layer attached to the supporting plate and having a top portion covering the top surface of supporting plate and an extended portion extending from edges of the top portion and being folded over the edges of the supporting plate to cover a portion of the bottom surface of supporting plate;
A radiant heat recovery heater comprising a plurality of heat transfer tubes arranged on a mounting section of the radiant heat recovery heater, the heat transfer tubes each comprising an outward path and a return path for a heat medium, wherein: first paths which are either the outward paths or the return paths are arranged to form an arrangement pitch circle having a small diameter, and second paths which are either the outward paths or the return paths different from the first paths are arranged to form an arrangement pitch circle having a large diameter; the heat transfer tubes are housed in a container; the heat transfer tubes absorb radiant heat from the container when the container is exposed to high temperature; the first paths and/or the second paths of the heat transfer tubes comprise flatly or elliptically processed parts enlarged along a projection, to increase a projection area extending from the container toward a center C of the container into a projection area of the processed part, the projection area extending from the container toward the center C; and the first paths and the second paths of the heat transfer tubes are arranged on the mounting section at equal intervals with a pitch angle θ around the center C of the mounting section. first paths which are either the outward paths or the return paths are arranged to form an arrangement pitch circle having a small diameter, and second paths which are either the outward paths or the return paths different from the first paths are arranged to form an arrangement pitch circle having a large diameter; the heat transfer tubes are housed in a container; the heat transfer tubes absorb radiant heat from the container when the container is exposed to high temperature; the first paths and/or the second paths of the heat transfer tubes comprise flatly or elliptically processed parts enlarged along a projection, to increase a projection area extending from the container toward a center C of the container into a projection area of the processed part, the projection area extending from the container toward the center C; and the first paths and the second paths of the heat transfer tubes are arranged on the mounting section at equal intervals with a pitch angle θ around the center C of the mounting section.
A method comprising: at a computing system having one or more processors and memory: obtaining (702, 803) a first network simulation scenario selected from a plurality of predefined network simulation scenarios, each of the network simulation scenarios embodying a specific combination of dynamic network parameters, wherein the dynamic network parameters for a respective predefined simulation scenario are based on measurements of a real world communication environment corresponding to the respective simulation scenario; executing (704, 804) a network-enabled test application; encoding a video stream associated with a plurality of specific operations of the network-enabled test application; simulating (706, 806) transmission of the encoded video stream in a simulated test network for the first network simulation scenario with associated first dynamic network parameters; generating (708, 808) a filtered data stream that reflects simulated real time effects of the simulated test network on transmission of the encoded data stream based on the first dynamic network parameters; determining (710, 810) a plurality of time-varying quality metrics for the filtered data stream; and adjusting (712, 814) congestion management algorithms of the test application based on the plurality of time-varying quality metrics for adjusting encoder controls. obtaining (702, 803) a first network simulation scenario selected from a plurality of predefined network simulation scenarios, each of the network simulation scenarios embodying a specific combination of dynamic network parameters, wherein the dynamic network parameters for a respective predefined simulation scenario are based on measurements of a real world communication environment corresponding to the respective simulation scenario; executing (704, 804) a network-enabled test application; encoding a video stream associated with a plurality of specific operations of the network-enabled test application; simulating (706, 806) transmission of the encoded video stream in a simulated test network for the first network simulation scenario with associated first dynamic network parameters; generating (708, 808) a filtered data stream that reflects simulated real time effects of the simulated test network on transmission of the encoded data stream based on the first dynamic network parameters; determining (710, 810) a plurality of time-varying quality metrics for the filtered data stream; and adjusting (712, 814) congestion management algorithms of the test application based on the plurality of time-varying quality metrics for adjusting encoder controls.