mhurhangee/ep-ind-claims huggingface dataset:
A projection-type image display apparatus for projecting an image, enlargedly, onto a projection surface, comprising: an image display element; a lens group, being disposed downstream of said image display element, comprising therein, a first lens group made up with a plural number of lenses, including, at least, a refractive lens, having a positive power or a negative power and being rotationally symmetric in a surface configuration thereof, and a second lens group made up with a plural number of lenses, including, at least, a rotationally asymmetric lens, the second lens group being disposed downstream of the first lens group, the lens group being arranged to emit the light from the image on the image display element; and a reflection mirror for reflecting the light from said lens group, thereby to project the light obliquely onto said projection surface; wherein a ratio of a diagonal size (Lo) of a projection image projected on said projection surface with respect to a distance (Lp) of said projection image from a central portion of said reflection mirror is greater than two; characterized in that: said reflection mirror has a free curved reflection surface which is rotationally asymmetric directed to said projection surface; and a normal line to the image display element surface is inclined by 1.1 - 2.0° to the optical axis of said lens group, the direction of inclination being opposite to the direction in which the projection surface is positioned. an image display element; a lens group, being disposed downstream of said image display element, comprising therein, a first lens group made up with a plural number of lenses, including, at least, a refractive lens, having a positive power or a negative power and being rotationally symmetric in a surface configuration thereof, and a second lens group made up with a plural number of lenses, including, at least, a rotationally asymmetric lens, the second lens group being disposed downstream of the first lens group, the lens group being arranged to emit the light from the image on the image display element; and a reflection mirror for reflecting the light from said lens group, thereby to project the light obliquely onto said projection surface; wherein a ratio of a diagonal size (Lo) of a projection image projected on said projection surface with respect to a distance (Lp) of said projection image from a central portion of said reflection mirror is greater than two; characterized in that: said reflection mirror has a free curved reflection surface which is rotationally asymmetric directed to said projection surface; and a normal line to the image display element surface is inclined by 1.1 - 2.0° to the optical axis of said lens group, the direction of inclination being opposite to the direction in which the projection surface is positioned. said reflection mirror has a free curved reflection surface which is rotationally asymmetric directed to said projection surface; and a normal line to the image display element surface is inclined by 1.1 - 2.0° to the optical axis of said lens group, the direction of inclination being opposite to the direction in which the projection surface is positioned.
Electronical device comprising a support, a component, in particular an integrated circuit chip, having a rear face mounted above a front face of the support and a front face opposite the rear face thereof, and an at least partial encapsulation unit (8, 26a) of the component above the front face of the support, device further comprising a flexible sheet having a plurality of successive portions, wherein at least portions (12, 13; 32) are joined by a fold and are at least partially opposite one another, a first portion of said flexible sheet being fixed at least locally on the front face of said component, characterised by the fact that the end of a second portion of said flexible sheet is fixed at least locally on the first portion by way of a thermal glue or a thermal paste or by welding or by molecular adhesion by compression.
An oral rehydration composition, wherein said composition comprises I-glutamic acid in a range of 0.01% to 0.40% w/w, monosodium glutamate in a range of 0.05% to 0.80% w/w, 1.50% w/w glucose monohydrate, 0.20% w/w sodium chloride, 0.15% w/w potassium chloride, 0.15% w/w sodium dihydrogen phosphate, 0.10% w/w xanthan gum, 0.35% w/w glycine, 0.20% w/w citric acid monohydrate, 85% Steviol Glycoside extract in a range of 0.01% to 0.03% w/w, 0.30% w/w trisodiumcitrate, 1.00% w/w hydrolyzed wheat, cereals as a protein source, enzyme co-factors, a monosaccharide, and hydrolyzed whey in a range of 0.15% to 1.00% w/w.
A method for performing an at least partially automatic vehicle function, in particular a driving function, of a vehicle depending on a travel route to be assessed using a driving assistance device, comprising the computer-implemented method steps of: - providing a plurality of clusters from route data with respect to at least one known travel route (10, 84), wherein the clusters group the route data section-wise according to predefined geometric parameters; - providing course data, in particular recorded by means of a sensor apparatus, that indicate a course of the travel route to be assessed, and applying the clusters to the course data in order to divide the travel route to be assessed into route sections (30, 36) corresponding to the clusters and, as a result, to assign one cluster in each case to the individual route sections (30, 36); - determining an uncertainty variable which is characteristic of an uncertainty with respect to the assignment made between at least one of the route sections (30, 36) and the cluster assigned to said route section (30, 36), wherein the uncertainty variable is characteristic of the uncertainty of the chosen cluster assignment of exactly one route section; - determining a control variable as a function of the uncertainty variable and providing the control variable for performing the vehicle function, wherein for each route section (30, 36) of the travel route to be assessed, to which route section a cluster is assigned, a control variable is determined depending on the respectively assigned cluster and provided for performing the vehicle function. - providing a plurality of clusters from route data with respect to at least one known travel route (10, 84), wherein the clusters group the route data section-wise according to predefined geometric parameters; - providing course data, in particular recorded by means of a sensor apparatus, that indicate a course of the travel route to be assessed, and applying the clusters to the course data in order to divide the travel route to be assessed into route sections (30, 36) corresponding to the clusters and, as a result, to assign one cluster in each case to the individual route sections (30, 36); - determining an uncertainty variable which is characteristic of an uncertainty with respect to the assignment made between at least one of the route sections (30, 36) and the cluster assigned to said route section (30, 36), wherein the uncertainty variable is characteristic of the uncertainty of the chosen cluster assignment of exactly one route section; - determining a control variable as a function of the uncertainty variable and providing the control variable for performing the vehicle function, wherein for each route section (30, 36) of the travel route to be assessed, to which route section a cluster is assigned, a control variable is determined depending on the respectively assigned cluster and provided for performing the vehicle function.
A communication method, comprising: obtaining, by a terminal, policy information, wherein the policy information comprises a local indication and a network identifier used to identify a first network, and the local indication indicates that the first network is a network accessible only in a specific area; and determining, by the terminal based on the policy information, that the first network associated with a detected application is a network accessible only in a specific area. obtaining, by a terminal, policy information, wherein the policy information comprises a local indication and a network identifier used to identify a first network, and the local indication indicates that the first network is a network accessible only in a specific area; and determining, by the terminal based on the policy information, that the first network associated with a detected application is a network accessible only in a specific area.
A method of measuring transverse geometric parameters of flat ribbon-shaped textile fibrous structures by a capacitive sensor, in which the textile fibrous structure passes through a measuring slot in a plate capacitor, wherein the textile fibrous structure passes through a measuring slot of a first plate capacitor and subsequently through a measuring slot of a second plate capacitor, whereby the capacitors have different capacitance which is converted by plate capacitor's own RC circuit into a pulse of width τ M and compared with an adjustable pulse of width τ K generated by plate capacitor's own compensation generator, which corresponds to the pulse width generated by the plate capacitor without a textile fibrous structure, and the time difference of pulses of width Δτ between the pulse of the RC circuit and the pulse of the compensation generator is converted by a counter counting the pulses from an auxiliary oscillator into a number of pulses p and information on the number of pulses p 1, p 2 of each of the two counters is sent to an evaluation circuit for calculating geometric parameters of the textile fibrous structure.
A therapeutic drug-polymer structure having a structure of the following formula and comprising a ligand bonded thereto: Formula 1 L-A-X-R-Y-B wherein A is a hydrophilic material; B is a hydrophobic material; X and Y are each a simple covalent bond or a linker-mediated covalent bond independently of each other; R is a double-helix oligo RNA; and L is a receptor-specific ligand having the property of enhancing internalization of the target cell by receptor-mediated endocytosis, covalently bonded to the end of the hydrophilic material, said ligand being selected from among folate, N-acetylgalactosamine, and mannose.
A barcode device, comprising: a barcode scanner to scan barcode labels (46, 46a-46c) and provide raw barcode data signals; a processor to receive and process the raw barcode data signals to provide processed barcode data signals and compare at least two of the processed barcode data signals; an indicator to notify a user of barcode data information based on the receipt of barcode data and comparison performed by the processor; a housing to contain the barcode scanner, the processor, and the indicator, the housing comprising a first end, an opposing second end, and a body extending between the first end and the second end, the housing configured to couple to a back of a glove; and characterized by an attachment mechanism to securely and removably attach the device to the glove. a barcode scanner to scan barcode labels (46, 46a-46c) and provide raw barcode data signals; a processor to receive and process the raw barcode data signals to provide processed barcode data signals and compare at least two of the processed barcode data signals; an indicator to notify a user of barcode data information based on the receipt of barcode data and comparison performed by the processor; a housing to contain the barcode scanner, the processor, and the indicator, the housing comprising a first end, an opposing second end, and a body extending between the first end and the second end, the housing configured to couple to a back of a glove; and characterized by an attachment mechanism to securely and removably attach the device to the glove.
A plate-type heat exchanger, in particular for motor vehicles, having a multiplicity of plate pairs for forming first, second and third flow paths (10, 11, 12), wherein a space region for fourth flow paths is formed between adjacent plate pairs, a plate pair is formed from at least one first plate and one second plate in order to form the first flow path and the second flow path between the first and the second plate (21, 22), wherein the first and the second plate (21, 22) are assigned a first attachment plate and a second attachment plate, respectively, wherein the third flow path is formed between the first plate and the second attachment plate which is placed onto the first plate, and the first flow path is furthermore formed between the second plate and the first attachment plate which is placed onto the first plate, or the third flow path is formed between the first plate and the first attachment plate which is placed onto the first plate, and the first flow path is furthermore formed between the second plate and the second attachment plate which is placed onto the second plate.
Starting-valve throttle device for delivery a melt from a screw extruder, having - a housing and a housing recess configured therein, - an entry duct for feeding the melt, said entry duct being configured in the housing and opening into the housing recess, - a delivery duct for delivering the melt, said delivery duct being configured in the housing and opening into the housing recess, - an evacuation opening for delivering the melt during a starting procedure of the screw extruder, and - a switching member, -- which is disposed in the housing recess and is repositionable between an evacuation position and a delivery position, -- which in the evacuation position at least in portions configures an evacuation duct for connecting the entry duct to the evacuation opening, -- which in the delivery position configures a passage duct for connecting the entry duct to the delivery duct, - a throttle member arranged in the passage duct, characterized in that the throttle member is repositionable relative to the switching member by means of a throttle member drive and can be actuated independently of the switching member. - a housing and a housing recess configured therein, - an entry duct for feeding the melt, said entry duct being configured in the housing and opening into the housing recess, - a delivery duct for delivering the melt, said delivery duct being configured in the housing and opening into the housing recess, - an evacuation opening for delivering the melt during a starting procedure of the screw extruder, and - a switching member, -- which is disposed in the housing recess and is repositionable between an evacuation position and a delivery position, -- which in the evacuation position at least in portions configures an evacuation duct for connecting the entry duct to the evacuation opening, -- which in the delivery position configures a passage duct for connecting the entry duct to the delivery duct, -- which is disposed in the housing recess and is repositionable between an evacuation position and a delivery position, -- which in the evacuation position at least in portions configures an evacuation duct for connecting the entry duct to the evacuation opening, -- which in the delivery position configures a passage duct for connecting the entry duct to the delivery duct, - a throttle member arranged in the passage duct,
A harness routing structure for a saddled vehicle used in the saddled vehicle, the harness routing structure for a saddled vehicle comprising: a steering handle supported by a head pipe; a passenger-sitting seat disposed at rear side of the steering handle; a step floor section that is disposed between the steering handle and the seat and disposed under the steering handle and the seat, and that is for a passenger who sits on the seat to place his/her legs thereon; a side body cover section (22, 29) configured to cover a vehicle body side surface; a center cover section extending from the side body cover section in a vehicle width direction; a fuel tank that is disposed in a space surrounded by the side body cover section and the center cover section, and that includes a fuel filler opening at an upper surface thereof; and a refueling tray that is disposed to surround a periphery of the fuel filler opening, and that is configured to be supported by the fuel tank, wherein a straddling space into which the passenger passes his/her legs to ride the vehicle is formed at an upper side of the center cover section and between the steering handle and the seat, characterised by, that a harness member extending from a front side of the straddling space to a rear side of the straddling space is routed below the center cover section, is passed through a side of the refueling tray, and is routed between the side body cover section and the refueling tray. a steering handle supported by a head pipe; a passenger-sitting seat disposed at rear side of the steering handle; a step floor section that is disposed between the steering handle and the seat and disposed under the steering handle and the seat, and that is for a passenger who sits on the seat to place his/her legs thereon; a side body cover section (22, 29) configured to cover a vehicle body side surface; a center cover section extending from the side body cover section in a vehicle width direction; a fuel tank that is disposed in a space surrounded by the side body cover section and the center cover section, and that includes a fuel filler opening at an upper surface thereof; and a refueling tray that is disposed to surround a periphery of the fuel filler opening, and that is configured to be supported by the fuel tank, wherein a straddling space into which the passenger passes his/her legs to ride the vehicle is formed at an upper side of the center cover section and between the steering handle and the seat, characterised by, that a harness member extending from a front side of the straddling space to a rear side of the straddling space is routed below the center cover section, is passed through a side of the refueling tray, and is routed between the side body cover section and the refueling tray.
A user equipment of controlling a secondary cell, SCell, comprising: a memory; a transceiver; and a processor coupled to the memory and the transceiver, wherein the processor is configured to: control the transceiver to receive at least one of downlink control information, DCI, and a medium access control, MAC, control element, CE, from a network node, wherein the at least one of the DCI and the MAC CE indicates control of a SCell; determine whether to apply or ignore the at least one of the DCI and the MAC CE; and control the SCell according to the determination, characterized in that when the transceiver receives the DCI and the MAC CE simultaneously, the MAC CE indicating activation of the SCell, and the DCI indicating deactivation of the SCell, the processor is configured to ignore one of the DCI and the MAC CE, and apply the other one of the DCI and the MAC CE to control the SCell. a memory; a transceiver; and a processor coupled to the memory and the transceiver, wherein the processor is configured to: control the transceiver to receive at least one of downlink control information, DCI, and a medium access control, MAC, control element, CE, from a network node, wherein the at least one of the DCI and the MAC CE indicates control of a SCell; determine whether to apply or ignore the at least one of the DCI and the MAC CE; and control the SCell according to the determination, characterized in that when the transceiver receives the DCI and the MAC CE simultaneously, the MAC CE indicating activation of the SCell, and the DCI indicating deactivation of the SCell, the processor is configured to ignore one of the DCI and the MAC CE, and apply the other one of the DCI and the MAC CE to control the SCell. control the transceiver to receive at least one of downlink control information, DCI, and a medium access control, MAC, control element, CE, from a network node, wherein the at least one of the DCI and the MAC CE indicates control of a SCell; determine whether to apply or ignore the at least one of the DCI and the MAC CE; and control the SCell according to the determination, characterized in that when the transceiver receives the DCI and the MAC CE simultaneously, the MAC CE indicating activation of the SCell, and the DCI indicating deactivation of the SCell, the processor is configured to ignore one of the DCI and the MAC CE, and apply the other one of the DCI and the MAC CE to control the SCell.
A polyethylene resin film having a density of 0.910 g/cm 3 to 0.930 g/cm 3, comprising a first polyethylene resin and a second polyethylene resin at a blending weight ratio of 6: 4 to 8: 2, wherein the first and second polyethylene resins have different MFRR (21.6/2.16) values, the MFRR (21.6/2.16) value obtained by dividing a melt flow rate (MFR 21.6) measured at a temperature of 230°C under a load of 21.6 kg in accordance with ISO 1133 by a melt flow rate (MFR 2.16) measured at a temperature of 230°C under a load of 2.16 kg in accordance with ISO 1133, and the first polyethylene resin has an MFRR (21.6/2.16) value of 28 to 32, and the second polyethylene resin has an MFRR (21.6/2.16) value of 19 to 22.5, wherein the first and second polyethylene resins are a copolymer of ethylene and alpha olefin, wherein the first and second polyethylene resins have a number average molecular weight of 20,000 g/mol to 50,000 g/mol and a weight average molecular weight of 100,000 g/mol to 160,000 g/mol, wherein the number average molecular weight and the weight average molecular weight are determined by way of gel permeation chromatography as described in the specification, and having a haze of 10% or less at a thickness of 90 μm to 110 μm when determined in accordance with ISO 13468, wherein the polyethylene resin film, in the state of a film, has MFRR (21.6/2.16) of 23 to 27, and wherein the density is determined in accordance with ASTM D792. comprising a first polyethylene resin and a second polyethylene resin at a blending weight ratio of 6: 4 to 8: 2, wherein the first and second polyethylene resins have different MFRR (21.6/2.16) values, the MFRR (21.6/2.16) value obtained by dividing a melt flow rate (MFR 21.6) measured at a temperature of 230°C under a load of 21.6 kg in accordance with ISO 1133 by a melt flow rate (MFR 2.16) measured at a temperature of 230°C under a load of 2.16 kg in accordance with ISO 1133, and the first polyethylene resin has an MFRR (21.6/2.16) value of 28 to 32, and the second polyethylene resin has an MFRR (21.6/2.16) value of 19 to 22.5, wherein the first and second polyethylene resins are a copolymer of ethylene and alpha olefin, wherein the first and second polyethylene resins have a number average molecular weight of 20,000 g/mol to 50,000 g/mol and a weight average molecular weight of 100,000 g/mol to 160,000 g/mol, wherein the number average molecular weight and the weight average molecular weight are determined by way of gel permeation chromatography as described in the specification, and having a haze of 10% or less at a thickness of 90 μm to 110 μm when determined in accordance with ISO 13468, wherein the polyethylene resin film, in the state of a film, has MFRR (21.6/2.16) of 23 to 27, and wherein the density is determined in accordance with ASTM D792.
A thermally conductive resin composition comprising: 10 wt% to 50 wt% of a polycarbonate resin; 1 wt% to 10 wt% of a glycol-modified polyester resin; 1 wt% to 15 wt% of a glass transition temperature reduction agent; 5 wt% to 20 wt% of an agent for laser direct structuring; 10 wt% to 35 wt% of boron nitride having an average particle diameter of 10 μm or more; and 10 wt% to 30 wt% of glass fibers, wherein a cross-section of the glass fiber is not circular. 10 wt% to 50 wt% of a polycarbonate resin; 1 wt% to 10 wt% of a glycol-modified polyester resin; 1 wt% to 15 wt% of a glass transition temperature reduction agent; 5 wt% to 20 wt% of an agent for laser direct structuring; 10 wt% to 35 wt% of boron nitride having an average particle diameter of 10 μm or more; and 10 wt% to 30 wt% of glass fibers, wherein a cross-section of the glass fiber is not circular.