mhurhangee/patent-ind-claim-en huggingface dataset:
A press forming method for forming a press-formed product having no flange portion from a blank by performing a crash forming process while using a die and a punch , wherein the punch has a forming top portion on which a blank is placed, a punch shoulder portion that is continued from the forming top portion and extends along the curving of the press-formed product, and a forming wall portion continued from the punch shoulder portion; and the die has a side wall forming portion that forms the side wall portion of the press-formed product by moving relative to the punch, wherein in an X-Y coordinate system in which an origin (O) is a point serving as a center of a radius curvature of the curving on the forming top portion, while an X-axis corresponds to a horizontal direction, whereas a Y-axis corresponds to a vertical direction, a curve drawn by a formula presented below is referred to as an optimal curve, while an inclination angle of a tangential line of the optimal curve at an arbitrary X-coordinate position is referred to as an optimal inclination angle, the side wall forming portion of the die has a cross-sectional shape expressed with a curve where an inclination angle of a tangential line at the arbitrary X-coordinate position with respect to the horizontal direction is equal to or greater than the optimal inclination angle. X = pr − R + R + t sin θ + br − pr − R − R + t 2 θ cos θ Y = − ∫ 0 θ t 2 sin θ − br − pr − R − R + t 2 θ sin θ tan θ d ⁢ θ } where pr : a radius [mm] of the punch; R : a radius curvature [mm] of the punch shoulder portion; br : a radius [mm] of the blank; t : a thickness [mm] of the blank; and θ : a contact angle (0 ≤ θ ≤ π / 2) [rad] of the blank with respect to the punch shoulder portion. the press-formed product including at least a top portion and a side wall portion continued from the top portion via a connecting portion and being structured so that either all or a part of the side wall portion curves toward an outside of the press-formed product to form a convex shape in a planar view, the press forming method comprising: forming the side wall portion while keeping a tip end portion of the blank in continuous contact with a side wall forming portion of the die and causing the die to impose restraint only on the tip end portion of the blank, wherein the tip end portion of the blank corresponds to an extent from a tip end of the blank defined by a distance up to four times longer than a thickness of the blank. where pr : a radius [mm] of the punch; R : a radius curvature [mm] of the punch shoulder portion; br : a radius [mm] of the blank; t : a thickness [mm] of the blank; and θ : a contact angle (0 ≤ θ ≤ π / 2) [rad] of the blank
A laminate of thermoplastic resin film with vapor-permeable barrier function, wherein said laminate comprises: at least one layer of non-amorphous thermoplastic resin film having a continuous structure in a thickness of 1-120 μm with vapor-permeable barrier function; at least one layer of natural or chemical product layer with a gram weight of 1-250 g/m 2 ; and one or more resin layers with a gram weight of 0.1 g/m 2 to 550 g/m 2 which are made from thermoplastic resin and/or curable resin, which locate between said thermoplastic resin film and said product layer in order to bond both together, and which have physical interval gaps of 700 nm to 3 mm; wherein the natural or chemical product layer is a discontinuous film, a non-woven product, a viscose fibre product, and/or a textile fiber product; wherein the thermoplastic resin film with vapor-permeable barrier function is formed from a thermoplastic resin composition which, by mass percentage, comprises the following components: 3-95% thermoplastic non-amorphous elastomer resin material with a proportion of 5% or more hydrophilic segment, 1-99% polar thermoplastic resin material, and 0-28% compatibilizer selected from thermoplastic resin material; and wherein said laminate is capable of blocking solid dusts, aerosols, bacteria, virus and liquid with a size larger than 5 nm. at least one layer of non-amorphous thermoplastic resin film having a continuous structure in a thickness of 1-120 μm with vapor-permeable barrier function; at least one layer of natural or chemical product layer with a gram weight of 1-250 g/m 2 ; and one or more resin layers with a gram weight of 0.1 g/m 2 to 550 g/m 2 which are made from thermoplastic resin and/or curable resin, which locate between said thermoplastic resin film and said product layer in order to bond both together, and which have physical interval gaps of 700 nm to 3 mm; wherein the natural or chemical product layer is a discontinuous film, a non-woven product, a viscose fibre product, and/or a textile fiber product; wherein the thermoplastic resin film with vapor-permeable barrier function is formed from a thermoplastic resin composition which, by mass percentage, comprises the following components: 3-95% thermoplastic non-amorphous elastomer resin material with a proportion of 5% or more hydrophilic segment, 1-99% polar thermoplastic resin material, and 0-28% compatibilizer selected from thermoplastic resin material; and wherein said laminate is capable of blocking solid dusts, aerosols, bacteria, virus and liquid with a size larger than 5 nm.
Method for protected communication between a mobile unit coupled to a smartphone and a server , wherein it is possible to access a service of the server via the smartphone by means of registration data, comprising the steps: - first-time entry of a secret number in association with the registration data on the smartphone and/or on the coupled mobile unit ; - definition of a secret of the mobile unit , wherein the secret serves to uniquely identify the mobile unit ; - storage of the registration data , of the secret number entered the first time and of the defined secret in a secure memory in the smartphone ; - re-entry of the secret number on the mobile unit ; - transmission of the re-entered secret number and of the defined secret from the mobile unit to the secure memory in the smartphone ; - reading of at least part of the registration data from the secure memory of the smartphone if the previously transmitted secret number and the previously transmitted defined secret match the secret number stored in the secure memory of the smartphone and the stored defined secret ; and - transmission of at least the previously read part of the registration data from the smartphone to the server in order to access the service. - first-time entry of a secret number in association with the registration data on the smartphone and/or on the coupled mobile unit ; - definition of a secret of the mobile unit , wherein the secret serves to uniquely identify the mobile unit ; - storage of the registration data , of the secret number entered the first time and of the defined secret in a secure memory in the smartphone ; - re-entry of the secret number on the mobile unit ; - transmission of the re-entered secret number and of the defined secret from the mobile unit to the secure memory in the smartphone ; - reading of at least part of the registration data from the secure memory of the smartphone if the previously transmitted secret number and the previously transmitted defined secret match the secret number stored in the secure memory of the smartphone and the stored defined secret ; and - transmission of at least the previously read part of the registration data from the smartphone to the server in order to access the service.
A method of encoding left and right input audio signals (1, r) to generate corresponding encoded data , the method comprising the steps of: (a) processing the input signals (1, r) to determine first parameters (φ 1 , φ 2 ) describing a modification of at least one of a relative phase difference and a temporal difference between the input signals (1, r), and applying these first parameters (φ 1 , φ 2 ) to phase rotate the input signals (1, r) to generate corresponding intermediate signals; (b) processing the intermediate signals to determine second parameters (α; IID, p) describing rotation of the intermediate signals required to generate a dominant signal (m) and a residual signal (s), said second parameters (α; IID, p) being determined for minimizing the energy of said residual signal (s), said dominant signal (m) having an energy greater than that of the residual signal (s), and applying these second parameters (α; IID, p) to process the intermediate signals to generate the dominant (m) and the residual (s) signals; (c) quantizing the first parameters (φ 1 , φ 2 ), the second parameters (α; IID, ρ), and encoding at least a part of the dominant signal (m) and the residual signal (s) to generate corresponding quantized data; and (d) multiplexing the quantized data to generate the encoded data ; wherein a first one (φ 1 ) of the first parameters (φ 1 , φ 2 ) is determined to maximise the continuation of signals over associated boundaries on a frame-by-frame basis so as to at least partially remove discontinuities in the dominant signal (m) and a second one (φ 2 ) of the first parameters (φ 1 , φ 2 ) is determined to minimize the energy of the residual signal (s) by phase rotating the right input signal (r). (a) processing the input signals (1, r) to determine first parameters (φ 1 , φ 2 ) describing a modification of at least one of a relative phase difference and a temporal difference between the input signals (1, r), and applying these first parameters (φ 1 , φ 2 ) to phase rotate the input signals (1, r) to generate corresponding intermediate signals; (b) processing the intermediate signals to determine second parameters (α; IID, p) describing rotation of the intermediate signals required to generate a dominant signal (m) and a residual signal (s), said second parameters (α; IID, p) being determined for minimizing the energy of said residual signal (s), said dominant signal (m) having an energy greater than that of the residual signal (s), and applying these second parameters (α; IID, p) to process the intermediate signals to generate the dominant (m) and the residual (s) signals; (c) quantizing the first parameters (φ 1 , φ 2 ), the second parameters (α; IID, ρ), and encoding at least a part of the dominant signal (m) and the residual signal (s) to generate corresponding quantized data; and (d) multiplexing the quantized data to generate the encoded data ;
A PD-L1 binding antagonist for use in a method for treating or delaying progression of non-small cell lung cancer in an individual, wherein the PD-L1 binding antagonist is administered in combination with nab-paclitaxel and carboplatin, and wherein the PD-L1 binding antagonist is an antibody.
Assembly formed by a cooking container comprising at least one outwardly curved bracket as well as a removable handle intended to cooperate with said bracket , said bracket comprising a free end and a through-opening provided with a front wall , said removable handle extending along a longitudinal axis and comprising at one end a lip ending with a double cambering able to be inserted into said opening , said lip being provided with a lower bearing wall intended to cooperate with an upper bearing face of the bracket , the bracket comprising a housing arranged near the free end and the lip comprising a boss arranged on the lower bearing surface and which extends along a horizontal main direction, perpendicular to the longitudinal axis , characterized in that the boss and the housing are sized to bring the double cambering into contact with the front wall of the opening when the handle is assembled on the bracket .
A resin piping assembly (70; 200; 210) having an oil passage , comprising: a base divisional component (100; 212) including a first half component having a first interfacial surface formed along the oil passage , and a second half component having a second interfacial surface formed along the oil passage; a first divisional component having a third interfacial surface formed along the oil passage, and bonded to the first half component with the first and third interfacial surfaces being held in contact with each other, so as to form a first passage portion of the oil passage; and a second divisional component having a fourth interfacial surface formed along the oil passage, and bonded to the second half component with the second and fourth interfacial surfaces being held in contact with each other, so as to form a second passage portion of the oil passage, each of the base divisional component, the first divisional component and the second divisional component being formed of a resin material, the first and second half components being spaced apart from each other along a length of the oil passage, and the first and second interfacial surfaces being open in respective opposite directions, the base divisional component (100; 212) further including a cylindrical connecting pipe portion (90; 216) having a connecting passage portion (88; 214) which is a part of the oil passage and which is provided for communication between the first and second passage portions . a base divisional component (100; 212) including a first half component having a first interfacial surface formed along the oil passage , and a second half component having a second interfacial surface formed along the oil passage; a first divisional component having a third interfacial surface formed along the oil passage, and bonded to the first half component with the first and third interfacial surfaces being held in contact with each other, so as to form a first passage portion of the oil passage; and a second divisional component having a fourth interfacial surface formed along the oil passage, and bonded to the second half component with the second and fourth interfacial surfaces being held in contact with each other, so as to form a second passage portion of the oil passage, each of the base divisional component, the first divisional component and the second divisional component being formed of a resin material, the first and second half components being spaced apart from each other along a length of the oil passage, and the first and second interfacial surfaces being open in respective opposite directions, the base divisional component (100; 212) further including a cylindrical connecting pipe portion (90; 216) having a connecting passage portion (88; 214) which is a part of the oil passage and which is provided for communication between the first and second passage portions .
A method for forming a protective-film for a semiconductor substrate (W), the method comprising: a polishing step (X) of the semiconductor substrate (W) using a polishing head , which holds the semiconductor substrate (W), and a surface plate with a polishing cloth attached thereto for polishing the semiconductor substrate (W), the polishing head being pressurized and slid while supplying an abrasive agent between the polishing cloth and the semiconductor substrate (W); and a first protective-film forming step (Y1) by hydrophilizing with a surfactant solution supplied between the polishing cloth for polishing the semiconductor substrate (W) and a surface of the polished semiconductor substrate (W), after the polishing step (X); characterised by a second protective-film forming step (Y2), after the first protective-film forming step (Y1), comprising contacting at least the front surface of the polished semiconductor substrate (W) with a liquid surface of a protective-film forming treatment liquid comprising the surfactant solution, detaching the polished semiconductor substrate (W) from the polishing head while at least the front surface of the polished semiconductor substrate (W) is in contact with the liquid surface of the protective-film forming treatment liquid and forming a second protective-film on a front surface and a back surface of the semiconductor substrate (W) by immersing the polished semiconductor substrate (W) in the protective-film forming treatment liquid . a polishing step (X) of the semiconductor substrate (W) using a polishing head , which holds the semiconductor substrate (W), and a surface plate with a polishing cloth attached thereto for polishing the semiconductor substrate (W), the polishing head being pressurized and slid while supplying an abrasive agent between the polishing cloth and the semiconductor substrate (W); and a first protective-film forming step (Y1) by hydrophilizing with a surfactant solution supplied between the polishing cloth for polishing the semiconductor substrate (W) and a surface of the polished semiconductor substrate (W), after the polishing step (X); characterised by a second protective-film forming step (Y2), after the first protective-film forming step (Y1), comprising contacting at least the front surface of the polished semiconductor substrate (W) with a liquid surface of a protective-film forming treatment liquid comprising the surfactant solution, detaching the polished semiconductor substrate (W) from the polishing head while at least the front surface of the polished semiconductor substrate (W) is in contact with the liquid surface of the protective-film forming treatment liquid and forming a second protective-film on a front surface and a back surface of the semiconductor substrate (W) by immersing the polished semiconductor substrate (W) in the protective-film forming treatment liquid .
Illumination device for a colour measurement device or a pointwise or linewise measuring spectrophotometer, wherein the colour measurement device or the spectrophotometer has a plurality of light sources formed by light diode chips which are formed as cosine emitters and the plurality of light sources are formed as a linear array of light diode chips , wherein many individual light diode chips are disposed a tightly packed along a narrow, precisely defined linear, sectionwise linear or curved, in particular circular line, wherein the linear array has a region or a plurality of regions, wherein at least one region has a plurality of light diode chips , characterized in that the light diode chips in the at least one region are collectively covered by a resin , wherein at least a converter material for converting the light emitted from the light diode chips into other wavelengths regions is contained in the resin , the resin has a different converter material.
A method for determining a switching current of at least one switching element of a converter of a system for inductive power transfer, wherein the method comprises the steps of - determine a phase current (lu, Iv, lw) of at least one AC phase line of the converter , - determine at least one switching time point (SP, SP1, SP2, SP3) of the at least one switching element and the phase current value at said switching time point (SP, SP1, SP2, SP3), - determine switching current of the at least one switching element depending on the at least one phase current value. - determine a phase current (lu, Iv, lw) of at least one AC phase line of the converter , - determine at least one switching time point (SP, SP1, SP2, SP3) of the at least one switching element and the phase current value at said switching time point (SP, SP1, SP2, SP3), - determine switching current of the at least one switching element depending on the at least one phase current value.
A light-emitting apparatus comprising: a first light emitter (120; 120'; 120"; 120′′′; 220; 320; 420) configured to emit visible light, the first light emitter (120; 120'; 120"; 220; 320; 420) comprising a plurality of light sources (LED11, ..., LEDn; RLED, GLED, BLED; WWLED, DLLED) having color temperatures different from each other; a second light emitter (130; 230; 330; 430) configured to emit infrared rays; and a controller (110; 210; 310; 410) configured to adjust characteristics of the visible light and the infrared rays by controlling the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430), wherein each of the light sources (LED11, ..., LEDn; RLED, GLED, BLED; WWLED, DLLED) comprises a light-emitting diode chip and a wavelength conversion unit configured to convert a wavelength rage of light emitted from the light-emitting diode chip, characterized in that the light-emitting apparatus (100; 200; 300; 400) further comprises an optical sensor (140; 240; 340; 440) configured to sense external light and including an infrared sensor for sensing infrared rays of the external light, wherein the controller (110; 210; 310; 410) is further configured to acquire a spectrum of the external light by communicating with the optical sensor (140; 240; 340; 440), and control the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430) according to the spectrum of the external light. a first light emitter (120; 120'; 120"; 120′′′; 220; 320; 420) configured to emit visible light, the first light emitter (120; 120'; 120"; 220; 320; 420) comprising a plurality of light sources (LED11, ..., LEDn; RLED, GLED, BLED; WWLED, DLLED) having color temperatures different from each other; a second light emitter (130; 230; 330; 430) configured to emit infrared rays; and a controller (110; 210; 310; 410) configured to adjust characteristics of the visible light and the infrared rays by controlling the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430), wherein each of the light sources (LED11, ..., LEDn; RLED, GLED, BLED; WWLED, DLLED) comprises a light-emitting diode chip and a wavelength conversion unit configured to convert a wavelength rage of light emitted from the light-emitting diode chip, characterized in that the light-emitting apparatus (100; 200; 300; 400) further comprises an optical sensor (140; 240; 340; 440) configured to sense external light and including an infrared sensor for sensing infrared rays of the external light, wherein the controller (110; 210; 310; 410) is further configured to acquire a spectrum of the external light by communicating with the optical sensor (140; 240; 340; 440), and control the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430) according to the spectrum of the external light.
A canister and filter assembly for a vacuum cleaner , the assembly comprising: a canister having an inlet port , an outlet port , a flow path between the inlet port and the outlet port , and a peripheral side wall , the peripheral side wall at least partially defining an interior space of the canister ; and a filter disposed in the flow path in the interior space of the canister and adjacent the outlet port , the filter including a filter media having a non-pleated portion , a pleated portion , an exterior surface, and an interior surface; wherein the peripheral side wall forms a corner and the filter media defines a corner that is shaped to fit adjacent to the corner of the peripheral side wall ; and wherein the non-pleated portion of the exterior surface of the filter media faces the side wall , and the pleated portion of the exterior surface of the filter media faces the interior space of the canister . a canister having an inlet port , an outlet port , a flow path between the inlet port and the outlet port , and a peripheral side wall , the peripheral side wall at least partially defining an interior space of the canister ; and a filter disposed in the flow path in the interior space of the canister and adjacent the outlet port , the filter including a filter media having a non-pleated portion , a pleated portion , an exterior surface, and an interior surface; wherein the peripheral side wall forms a corner and the filter media defines a corner that is shaped to fit adjacent to the corner of the peripheral side wall ; and wherein the non-pleated portion of the exterior surface of the filter media faces the side wall , and the pleated portion of the exterior surface of the filter media faces the interior space of the canister .