mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a light emitting diode structure including a first conductive semiconductor layer an active layer and a second conductive semiconductor layer; a substrate over the light emitting diode structure; a first reflective layer having a plurality of dielectric layers including a first dielectric layer having a first refractive index over the substrate, and a second dielectric layer having a second refractive index different from the first refractive index of the first dielectric layer; and a second reflective layer over the first reflective layer, the second reflective layer having a refractive index lower than the refractive index of each dielectric layer of the first reflective layer, characterized in that the second reflective layer has the refractive index between refractive indexes of the first reflective layer and air. a light emitting diode structure including a first conductive semiconductor layer an active layer and a second conductive semiconductor layer; a substrate over the light emitting diode structure; a first reflective layer having a plurality of dielectric layers including a first dielectric layer having a first refractive index over the substrate, and a second dielectric layer having a second refractive index different from the first refractive index of the first dielectric layer; and a second reflective layer over the first reflective layer, the second reflective layer having a refractive index lower than the refractive index of each dielectric layer of the first reflective layer, characterized in that the second reflective layer has the refractive index between refractive indexes of the first reflective layer and air.
A component of a gas turbine engine comprising: a first side and a second side; and a cooling hole extending through the first side to the second side, the cooling hole including an inlet portion disposed about a longitudinal axis, the inlet portion defining a cross-sectional inlet area through the first side, and a diffuser portion in communication with the inlet portion, the diffuser portion defining a cross-sectional exit area through the second side, wherein an area ratio of the exit area to the inlet area is between 2.5 and 8, wherein the diffuser portion includes a first lobe (106; 116) and a second lobe (106; 116) disposed on either side of the axis, and a center portion between the first lobe (106; 116) and the second lobe (106; 116), wherein the center portion defines a curved transition between the first lobe and the second lobe and the diffuser portion includes a forward expansion angle and a lateral expansion angle relative to the axis, characterised in that each of the forward expansion angle and the lateral expansion angle are either 7° or 12°. a first side and a second side; and a cooling hole extending through the first side to the second side, the cooling hole including an inlet portion disposed about a longitudinal axis, the inlet portion defining a cross-sectional inlet area through the first side, and a diffuser portion in communication with the inlet portion, the diffuser portion defining a cross-sectional exit area through the second side, wherein an area ratio of the exit area to the inlet area is between 2.5 and 8, wherein the diffuser portion includes a first lobe (106; 116) and a second lobe (106; 116) disposed on either side of the axis, and a center portion between the first lobe (106; 116) and the second lobe (106; 116), wherein the center portion defines a curved transition between the first lobe and the second lobe and the diffuser portion includes a forward expansion angle and a lateral expansion angle relative to the axis, characterised in that each of the forward expansion angle and the lateral expansion angle are either 7° or 12°.
A luggage compartment separator that changes the luggage compartment volume in the vehicles, which is able to be applied to any kind of vehicle by various modifications and which is suitable for use particularly in commercial vehicles, wherein it comprises: • two telescopic roof rails that are positioned parallel to one another; • four roof brackets that enable said roof rails to be mounted to the roof of the vehicle and are arranged at a quantity of two per roof rail; • a top mat that is positioned to separate the top-seat compartment of the vehicle and hangs down from said roof rails; • a bottom mat that is positioned adjacent to said top mat; said luggage compartment separator being characterized by comprising: • at least one lock mechanism 1 on said top mat for enabling the top mat to be secured to the side surface of the vehicle; • a lock mechanism 2 on the bottom mat for connecting the bottom mat and the top mat with each other in both open and closed positions and for enabling the same to remain stationary; and • a fixing mechanism that enables the bottom mat to be secured to the vehicle floor when in open position. • two telescopic roof rails that are positioned parallel to one another; • four roof brackets that enable said roof rails to be mounted to the roof of the vehicle and are arranged at a quantity of two per roof rail; • a top mat that is positioned to separate the top-seat compartment of the vehicle and hangs down from said roof rails; • a bottom mat that is positioned adjacent to said top mat; • at least one lock mechanism 1 on said top mat for enabling the top mat to be secured to the side surface of the vehicle; • a lock mechanism 2 on the bottom mat for connecting the bottom mat and the top mat with each other in both open and closed positions and for enabling the same to remain stationary; and • a fixing mechanism that enables the bottom mat to be secured to the vehicle floor when in open position.
A microchip comprising: a plurality of substrate layers (11, 12, 13); and bonding layers (22a, 22b) laminated on boundary surfaces between the substrate layers and which include a silicon compound, wherein at least one of the bonding layers includes an organic silicon compound, wherein the plurality of substrate layers include a substrate layer made of non-silicone resin and a substrate layer made of polydimethylsiloxane, and wherein both surfaces of the substrate layer made of polydimethylsiloxane are bonded to a first substrate layer made of non-silicone resin and a second substrate layer made of non-silicone resin through the bonding layer. a plurality of substrate layers (11, 12, 13); and bonding layers (22a, 22b) laminated on boundary surfaces between the substrate layers and which include a silicon compound, wherein at least one of the bonding layers includes an organic silicon compound, wherein the plurality of substrate layers include a substrate layer made of non-silicone resin and a substrate layer made of polydimethylsiloxane, and wherein both surfaces of the substrate layer made of polydimethylsiloxane are bonded to a first substrate layer made of non-silicone resin and a second substrate layer made of non-silicone resin through the bonding layer.
A system for detecting a flow of fluid or pasty product, comprising: - a measuring thermistor having a negative temperature coefficient, the measuring thermistor being able to be positioned in an ambient measurement environment having a given ambient temperature and to have, with respect to the ambient measurement environment, a thermal resistance which varies as a function of the presence or absence of a flow of fluid or pasty product in the ambient measurement environment, and - a circuit for detecting time variations of a difference in measurement potential between a terminal of the measuring thermistor and a reference potential, characterized in that it further comprises a current-regulated supply circuit for the measuring thermistor, controlled by an electrical compensation dipole comprising one or more compensation thermistors having an identical negative temperature coefficient connected in series or in parallel, the compensating thermistor(s) being able to be positioned in a reference ambient environment at the given ambient temperature, so as to deliver a supply current to the measuring thermistor having an intensity which is inversely proportional to the resistance of the compensating electrical dipole. - a measuring thermistor having a negative temperature coefficient, the measuring thermistor being able to be positioned in an ambient measurement environment having a given ambient temperature and to have, with respect to the ambient measurement environment, a thermal resistance which varies as a function of the presence or absence of a flow of fluid or pasty product in the ambient measurement environment, and - a circuit for detecting time variations of a difference in measurement potential between a terminal of the measuring thermistor and a reference potential, characterized in that it further comprises a current-regulated supply circuit for the measuring thermistor, controlled by an electrical compensation dipole comprising one or more compensation thermistors having an identical negative temperature coefficient connected in series or in parallel, the compensating thermistor(s) being able to be positioned in a reference ambient environment at the given ambient temperature, so as to deliver a supply current to the measuring thermistor having an intensity which is inversely proportional to the resistance of the compensating electrical dipole.
A computer-implemented method comprising: in response to receiving a query, determining an execution plan (200, 300) that comprises a plurality of sub-plans including a first sub-plan and a second sub-plan; after determining the execution plan (200, 300), executing a portion of the execution plan (200, 300), wherein executing the portion of the execution plan (200, 300) comprises storing, in a buffer associated with a particular size, temporary results of executing the portion of the execution plan (200, 300); in response to determining that an amount of data in the buffer has reached the particular size, determining whether one or more criteria are satisfied; if the one or more criteria are satisfied, then executing the first sub-plan of the plurality of sub-plans without executing the second sub-plan; if the one or more criteria are not satisfied, then executing the second sub-plan of the plurality of sub-plans without executing the first sub-plan. in response to receiving a query, determining an execution plan (200, 300) that comprises a plurality of sub-plans including a first sub-plan and a second sub-plan; after determining the execution plan (200, 300), executing a portion of the execution plan (200, 300), wherein executing the portion of the execution plan (200, 300) comprises storing, in a buffer associated with a particular size, temporary results of executing the portion of the execution plan (200, 300); in response to determining that an amount of data in the buffer has reached the particular size, determining whether one or more criteria are satisfied; if the one or more criteria are satisfied, then executing the first sub-plan of the plurality of sub-plans without executing the second sub-plan; if the one or more criteria are not satisfied, then executing the second sub-plan of the plurality of sub-plans without executing the first sub-plan.
Shower enclosure comprising a door which is movable between an open position and a closed position and which at its top is guided in a positionally fixed rail via guide elements (10a, 10b) and, by means of a spring/damper unit comprising at least one spring and damper element, is moved actively to the respective end position (2a, 4a) in the movement to the open or closed position (2, 4), wherein the spring/damper unit is received in a recess at the upper edge of the door leaf, wherein activation elements (18a, 18b) are provided which come into engagement with the spring/damper unit before the respective end position (2a, 4a) of the open or closed position (2, 4) is reached, wherein the guide elements (10a, 10b) comprise at least one guide roller (46, 48) connected to the housing of the spring/damper unit, and wherein the guide roller (46, 48) and the engagement means or engagement elements (20, 22) of the spring/damper unit are arranged on mutually opposite sides of the door leaf, characterized in that the guide roller is adjustable in height via an adjustment eccentric arranged on the door leaf, wherein the adjustment eccentric comprises an eccentric bolt, which extends through a bore in the door leaf and via which the housing of the spring/damper unit is connected to the door leaf.
A tyre presenting a circumferential direction, a radial direction and a transversal direction including an external tread portion which comprises at least a tread block (a), said tread block (a) comprising a plurality of lateral perimetral walls (2, 3, 4, 5), wherein: at least a portion of an external surface of one of said perimetral walls (2, 3, 4, 5) bears a 3-dimensional pattern of recesses and/or protrusions, wherein said recesses and/or protrusions alternate to each other according to at least two spatial directions (x, y) of the same external surface, characterized in that said 3-dimensional pattern of alternating recesses and/or protrusions is realized by means of a wavy generatrix swept along a wavy directrix, said generatrix and directrix each comprising crest points, which are most external points of a respective external surface, and trough points, which are most internal points of said respective external surface. at least a portion of an external surface of one of said perimetral walls (2, 3, 4, 5) bears a 3-dimensional pattern of recesses and/or protrusions, wherein said recesses and/or protrusions alternate to each other according to at least two spatial directions (x, y) of the same external surface, characterized in that said 3-dimensional pattern of alternating recesses and/or protrusions is realized by means of a wavy generatrix swept along a wavy directrix, said generatrix and directrix each comprising crest points, which are most external points of a respective external surface, and trough points, which are most internal points of said respective external surface.
A method for spatio-temporal mapping of protein secretions from individual live cells in real time, comprising: imaging the protein secrections from a live cell using a chip for label-free localized surface plasmon resonance (LSPR) imaging, comprising a glass coverslip compatible for use in a standard microscope and at least one array of functionalized plasmonic nanostructures patterned onto the glass coverslip; placing the live cell on the glass coverslip; and spatially and temporally mapping secretions from the live cell using LSPR imaging; observing the live cell using transmitted light imaging of the light cell and fluorescence imaging simultaneously with the LSPR imaging; and distinguishing a burst secretion from a steady state secretion by the live cell; wherein a distance of a center of the live cell to the array is less than 15 μm. imaging the protein secrections from a live cell using a chip for label-free localized surface plasmon resonance (LSPR) imaging, comprising a glass coverslip compatible for use in a standard microscope and at least one array of functionalized plasmonic nanostructures patterned onto the glass coverslip; placing the live cell on the glass coverslip; and spatially and temporally mapping secretions from the live cell using LSPR imaging; observing the live cell using transmitted light imaging of the light cell and fluorescence imaging simultaneously with the LSPR imaging; and distinguishing a burst secretion from a steady state secretion by the live cell; wherein a distance of a center of the live cell to the array is less than 15 μm.
A method of preparing a catalyst composition comprising the steps of: (a) combining: (i) an over flocculated molecular sieve; (ii) a binder; and (iii) optionally, a matrix material; to form a catalyst slurry; and (b) milling the catalyst slurry, said over flocculated molecular sieve providing a viscosity of 7,000 cPs in a sample slurry, 1000 g of said sample slurry being prepared by adding 244 grams of an aluminum chlorohydrate solution from Reheis Inc., Berkeley Heights, New Jersey (LOI: 75.1%) to 224.5 grams of de-ionized water and mixing using a Yamato Model 2100 homogenizer (Yamato Scientific America Inc., Orangeburg, New York) at 700 RPM for 5 minutes; adding 310 grams of flocculated molecular sieve and mixing using Yamato mixer at 700 RPM for 10 minutes; then mixing using a Silverson L4RT-A high-shear mixer (from Silverson Machines Inc., East Longmeadow, MA) at 6000 RPM for 3 minutes; adding 221.5 grams of APS Ultrafine clay from Engelhard Corporation, Gordon, Georgia (LOI: 15.69%) while mixing using Yamato mixer at 700 RPM for 10 minutes, then mixing using a Silverson L4RT-A in-line mixer at 7500 RPM for 60 passes at a flow rate of 1500 g/min, leaving the slurry to equilibrate at room temperature to 23-24 °C; and the viscosity of said sample slurry being measured at a temperature of 23-24 °C with a Brookfield DV-II + Pro Viscometer using a #6 spindle at 10 RPM shear rate. (a) combining: (i) an over flocculated molecular sieve; (ii) a binder; and (iii) optionally, a matrix material; to form a catalyst slurry; and (i) an over flocculated molecular sieve; (ii) a binder; and (iii) optionally, a matrix material; (b) milling the catalyst slurry,
A wireless communication method, comprising: receiving, by a terminal device, first information from a network device, the first information indicating a target parameter set; wherein the target parameter set is a first parameter set or a second parameter set, the first parameter set comprises a plurality of parameters used in a first scheme for performing paging at a specific frequency point, and the second parameter set comprises a plurality of parameters used in a second scheme for performing paging at a specific frequency point, characterized in that, the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is not dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; obtaining, by the terminal device, the target parameter set based on the first information; and monitoring, by the terminal device, based on the target parameter set, paging performed by the network device to the terminal device. receiving, by a terminal device, first information from a network device, the first information indicating a target parameter set; wherein the target parameter set is a first parameter set or a second parameter set, the first parameter set comprises a plurality of parameters used in a first scheme for performing paging at a specific frequency point, and the second parameter set comprises a plurality of parameters used in a second scheme for performing paging at a specific frequency point, characterized in that, the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is not dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; obtaining, by the terminal device, the target parameter set based on the first information; and monitoring, by the terminal device, based on the target parameter set, paging performed by the network device to the terminal device.
Valve device comprising a substrate and an elastic membrane, the membrane being joined at least around a valve area to the substrate, the substrate comprising a first channel and a second channel, both ending in the valve area, the first channel having in the valve area a first channel end surface and the second channel having in the valve area a second channel end surface, the area of the first channel end surface being substantially larger than the area of the second channel end surface, the valve device further comprising a plunger which can be pressed against the membrane in at least a part of the valve area on a side opposite the substrate and further comprising a pressure device configured to press the plunger against the membrane, characterized in that the first channel end surface 19 is substantially horseshoe shaped.
A radio receiver, comprising: a digital subsystem to receive input associated with a radio band, the digital subsystem comprising: a channelizer bank comprising a plurality of channelizers (308, 310) each configured to simultaneously define a channel plan comprising a plurality of channels within the radio band, wherein each channelizer comprises a complex mixer and a cascaded integrator comb "CIC" decimator, configured such that an output of each CIC decimator is sent to an interleaver, the interleaver configured to interleave the outputs for use in subsequent stages of the digital subsystem, wherein the subsequent stages are over-clocked to run at a higher clock rate than the outputs of the CIC decimators; wherein the digital subsystem is configured to adjust channel plans defined by the plurality of channelizers in real-time based in part on a required Received Signal Strength Indicator "RSSI" that is needed to result in communication having at least a predetermined Read Reliability Requirement "RRR", and is further configured to associate endpoints (108, 110) with the channel plans based on their respective RSSI values resulting in at least the predetermined RRR; and a decoder bank comprising a plurality of decoders (316, 318) configured to operate in parallel and receive input from one or more channelizers of the plurality of channelizers, wherein each decoder is associated with a particular modulation scheme; wherein centers of the plurality of channels are spaced at irregular intervals and/or bandwidths of the plurality of channels are non-uniform. a channelizer bank comprising a plurality of channelizers (308, 310) each configured to simultaneously define a channel plan comprising a plurality of channels within the radio band, wherein each channelizer comprises a complex mixer and a cascaded integrator comb "CIC" decimator, configured such that an output of each CIC decimator is sent to an interleaver, the interleaver configured to interleave the outputs for use in subsequent stages of the digital subsystem, wherein the subsequent stages are over-clocked to run at a higher clock rate than the outputs of the CIC decimators; wherein the digital subsystem is configured to adjust channel plans defined by the plurality of channelizers in real-time based in part on a required Received Signal Strength Indicator "RSSI" that is needed to result in communication having at least a predetermined Read Reliability Requirement "RRR", and is further configured to associate endpoints (108, 110) with the channel plans based on their respective RSSI values resulting in at least the predetermined RRR; and a decoder bank comprising a plurality of decoders (316, 318) configured to operate in parallel and receive input from one or more channelizers of the plurality of channelizers, wherein each decoder is associated with a particular modulation scheme; wherein centers of the plurality of channels are spaced at irregular intervals and/or bandwidths of the plurality of channels are non-uniform.