mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting the presence of gC1q/p32 receptor on a cell, the method comprising a. bringing into contact a cell and a Lyp-1 composition, wherein the Lyp-1 composition comprises a moiety linked to a composition comprising SEQ ID NO:1; and b. detecting interaction between gC1q/p32 receptor and the Lyp-1 composition, thereby detecting the presence of gC1 q/p32 receptor, wherein the method is carried out ex vivo or in vitro. a. bringing into contact a cell and a Lyp-1 composition, wherein the Lyp-1 composition comprises a moiety linked to a composition comprising SEQ ID NO:1; and b. detecting interaction between gC1q/p32 receptor and the Lyp-1 composition, thereby detecting the presence of gC1 q/p32 receptor,
A tolerance ring (114, 200), comprising: a generally cylindrical body having a sidewall that defines a top, and a bottom, wherein the sidewall includes: an upper unformed band; a lower unformed band opposite the upper unformed band; a plurality of shoulderless wave structures protruding radially from the sidewall between the upper unformed band and the lower unformed band, wherein each shoulderless wave structure is connected only to the upper unformed band and the lower unformed band; a plurality of unformed sections, wherein each unformed section is located between a pair of adjacent shoulderless wave structures; and a gap extending along the entire axial length of the body, wherein the gap establishes a split in the body. a generally cylindrical body having a sidewall that defines a top, and a bottom, wherein the sidewall includes: an upper unformed band; a lower unformed band opposite the upper unformed band; a plurality of shoulderless wave structures protruding radially from the sidewall between the upper unformed band and the lower unformed band, wherein each shoulderless wave structure is connected only to the upper unformed band and the lower unformed band; a plurality of unformed sections, wherein each unformed section is located between a pair of adjacent shoulderless wave structures; and a gap extending along the entire axial length of the body, wherein the gap establishes a split in the body. an upper unformed band; a lower unformed band opposite the upper unformed band; a plurality of shoulderless wave structures protruding radially from the sidewall between the upper unformed band and the lower unformed band, wherein each shoulderless wave structure is connected only to the upper unformed band and the lower unformed band; a plurality of unformed sections, wherein each unformed section is located between a pair of adjacent shoulderless wave structures; and a gap extending along the entire axial length of the body, wherein the gap establishes a split in the body.
Scanning optoelectronic detection device, designed as a laser scanner, for a motor vehicle, having an optical transmitter (1, 3) for transmitting electromagnetic beams, having an optical receiver for receiving beams reflected from a target object in surroundings of the motor vehicle and for providing an electrical reception signal on the basis of the received beams, and having an evaluation device for detecting the target object on the basis of the electrical reception signal, wherein the transmitter (1, 3) is designed to transmit a respective transmission beam for a multiplicity of different scanning angles (α) within an overall scanning angle range, and wherein the evaluation device is designed, for each scanning angle (α), to compare the reception signal with a detection threshold (16, 17) and to detect the target object on the basis of the comparison, characterized in that the detection threshold (16, 17) is an angle-dependent threshold function that has different threshold values for the reception signal for at least two different scanning angles (α) of the transmitter (1, 3).
Shower partition mounting (1, 44, 46) for the rigid fastening of a panel, in particular a side part of a shower configured as a glass panel, on a wall of a building, wherein the mounting (1, 44, 46) comprises a body, wherein the body with a panel contact face oriented vertically in the space is aligned parallel to a panel surface of the panel and can be fastened thereto, wherein the body with a wall contact face oriented vertically in the space is aligned parallel to a wall surface of the wall and can be fastened thereto, wherein the body of the mounting (1, 44, 46) is configured as a one-part and panel-shaped body, wherein the mounting (1, 44, 46) comprises adjusting means, by means of which the body can be displaced to the left or the right on the wall in the horizontal direction (x, x') relative to the wall, wherein the mounting (1, 44, 46) comprises at least one anchoring means, wherein the anchoring means has a first and a second portion (20, 21), wherein the first portion can be anchored in the body and wherein the second portion can be fastened on the wall, wherein the body comprises at least one body opening, the longitudinal axis of which is approximately perpendicular to the wall contact face, runs approximately parallel to the panel contact face and is provided to receive the first portion of the anchoring means, wherein the first portion of the anchoring means has clearance in the body opening and wherein the first portion of the anchoring means is configured as a head, characterised in that the head can be rotated about a rotational axis, the rotational axis being perpendicular to the wall surface, wherein the head is arranged eccentrically with respect to the rotational axis and, upon a rotation about the rotational axis, the horizontal position (MP, LP, RP) of the head with respect to the wall surface can be changed to the left or to the right.
A saddle type vehicle, comprising: a hollow main frame extending rearwardly from a head pipe; an air cleaner including a filter element disposed in the main frame to partition the main frame into a dirty side region and a clean side region; an engine disposed below the main frame; and an intake path member configured to connect the engine and the clean side region (21 c) to each other, the main frame having a front opening formed at a front portion thereof for introducing air therethrough, wherein a communicating opening for communicating with the engine is formed on a lower face side of the clean side region; characterized in that the communicating opening is covered with a lid member, and the lid member includes a first plate member in which a communicating hole in which the intake path member to the engine is inserted is provided, a second plate member which surrounds an outer periphery of the first plate member, and an elastic member provided between the first plate member and the second plate member. a hollow main frame extending rearwardly from a head pipe; an air cleaner including a filter element disposed in the main frame to partition the main frame into a dirty side region and a clean side region; an engine disposed below the main frame; and an intake path member configured to connect the engine and the clean side region (21 c) to each other,
A magnesium alloy sheet material formed by rolling a magnesium alloy having a long period stacking order phase crystallized at the time of casting, comprising: in a case where a sheet-thickness traverse section of an alloy structure is observed at a substantially right angle to the longitudinal direction by a scanning electron microscope, a structure mainly composed of the long period stacking order phase, in which at least two or more αMg phases having thickness in the observed section of 0.5 μm or less are laminated in a layered manner with the sheet-shape long period stacking order phase, wherein the magnesium alloy sheet material comprises 2 atomic% of Zn, 2 atomic% of Y, and the remaining part being Mg and unavoidable impurities. in a case where a sheet-thickness traverse section of an alloy structure is observed at a substantially right angle to the longitudinal direction by a scanning electron microscope, a structure mainly composed of the long period stacking order phase, in which at least two or more αMg phases having thickness in the observed section of 0.5 μm or less are laminated in a layered manner with the sheet-shape long period stacking order phase, wherein the magnesium alloy sheet material comprises 2 atomic% of Zn, 2 atomic% of Y, and the remaining part being Mg and unavoidable impurities.
A tandem white Organic Light Emitting Diode, OLED, device (300, 400) comprising: a) an anode; b) a cathode; c) a plurality of N white organic electroluminescence units (320.1, 320.2, 320.(N-1), 320.N, 520, 620, 720) disposed between the anode and the cathode, wherein each organic electroluminescence unit consists of a hole-transporting layer, an electron-transporting layer and at least one light-emitting layer (522.1, 552.2, 522.3) interposed between the hole-transporting layer and the electron-transporting layer, and wherein each organic electroluminescence unit is configured to emit white light; and d) an intermediate connector (330.1, 330.2, 330.(N-1), 830, 930, 1030, 1130, 1230, 1330, 1430, 1530, 1630) disposed between each adjacent organic electroluminescence unit, wherein the intermediate connector includes at least two different layers (831, 832, 933, 1034, 1335, 1536), wherein the intermediate connector has no direct connection to an external power source, and with the proviso that there are a total of N-1 intermediate connectors associated with N organic electroluminescence units. a) an anode; b) a cathode; c) a plurality of N white organic electroluminescence units (320.1, 320.2, 320.(N-1), 320.N, 520, 620, 720) disposed between the anode and the cathode, wherein each organic electroluminescence unit consists of a hole-transporting layer, an electron-transporting layer and at least one light-emitting layer (522.1, 552.2, 522.3) interposed between the hole-transporting layer and the electron-transporting layer, and wherein each organic electroluminescence unit is configured to emit white light; and d) an intermediate connector (330.1, 330.2, 330.(N-1), 830, 930, 1030, 1130, 1230, 1330, 1430, 1530, 1630) disposed between each adjacent organic electroluminescence unit, wherein the intermediate connector includes at least two different layers (831, 832, 933, 1034, 1335, 1536), wherein the intermediate connector has no direct connection to an external power source, and with the proviso that there are a total of N-1 intermediate connectors associated with N organic electroluminescence units.
A method for manufacturing an SOI wafer, the method by which a silicon oxide film is formed on a surface of a bond wafer made of a silicon single crystal, an ion implanted layer is formed inside the bond wafer by implanting at least one gas ion of a hydrogen ion and a rare gas ion through the silicon oxide film, and, after an ion implanted surface of the bond wafer and a surface of a base wafer made of a silicon single crystal are bonded through the silicon oxide film, the bond wafer is delaminated at the ion implanted layer to fabricate the SOI wafer having no oxide film in a terrace portion of a periphery of the base wafer and using the silicon oxide film as a buried oxide film, after a heat treatment is performed on the SOI wafer in a reducing atmosphere containing hydrogen or an atmosphere containing hydrogen chloride gas, a treatment is performed that removes the buried oxide film exposed on a periphery of an SOI layer of the SOI wafer after the said heat treatment and an epitaxial layer is then formed on a surface of the SOI layer.
A method of creating a bend in a construction component for use in a transportation vehicle, said method comprising: a) providing a plurality of cuts (605, 610) in said construction component, to create a region of increased flexibility in said construction component, said plurality of cuts comprising: i) a longitudinal cut positioned between two longitudinal edges of said construction component; and ii) a plurality of transversal cuts, wherein each of said plurality of transversal cuts intersects said longitudinal cut and extends from said longitudinal cut towards one of the two longitudinal edges of said construction component, said transversal cuts extending on both sides of said of said longitudinal cut in a staggered arrangement; b) bending said construction component in said region of increased flexibility so as to cause said construction component to acquire a bend in said region; and c) rigidifying said construction component in the region of increased flexibility so as to cause said construction component to maintain said bend. a) providing a plurality of cuts (605, 610) in said construction component, to create a region of increased flexibility in said construction component, said plurality of cuts comprising: i) a longitudinal cut positioned between two longitudinal edges of said construction component; and ii) a plurality of transversal cuts, wherein each of said plurality of transversal cuts intersects said longitudinal cut and extends from said longitudinal cut towards one of the two longitudinal edges of said construction component, said transversal cuts extending on both sides of said of said longitudinal cut in a staggered arrangement; i) a longitudinal cut positioned between two longitudinal edges of said construction component; and ii) a plurality of transversal cuts, wherein each of said plurality of transversal cuts intersects said longitudinal cut and extends from said longitudinal cut towards one of the two longitudinal edges of said construction component, said transversal cuts extending on both sides of said of said longitudinal cut in a staggered arrangement; b) bending said construction component in said region of increased flexibility so as to cause said construction component to acquire a bend in said region; and c) rigidifying said construction component in the region of increased flexibility so as to cause said construction component to maintain said bend.
An ink-jet printing method comprising the step of printing characters or images on a low-liquid absorbing printing medium using an ink-jet printing apparatus equipped with an ink-jet print head that is capable of ejecting water-based inks onto the low-liquid absorbing printing medium, in which: the low-liquid absorbing printing medium is a low-liquid absorbing coated paper or a low-liquid absorbing resin film; the water-based inks each comprise a colorant, an organic solvent and water; the ink-jet printing apparatus is loaded with the three or more kinds of water-based inks which are different in static surface tension from each other; the printing medium is heated to a temperature of from 35 to 75°C; the water-based inks are ejected in the sequential order from the water-based ink having a higher static surface tension; and the organic solvent comprises a glycol ether (c-2). the low-liquid absorbing printing medium is a low-liquid absorbing coated paper or a low-liquid absorbing resin film; the water-based inks each comprise a colorant, an organic solvent and water; the ink-jet printing apparatus is loaded with the three or more kinds of water-based inks which are different in static surface tension from each other; the printing medium is heated to a temperature of from 35 to 75°C; the water-based inks are ejected in the sequential order from the water-based ink having a higher static surface tension; and the organic solvent comprises a glycol ether (c-2).
A computer-implemented method comprising: receiving first data from one or more sensors (800, 1300, 1800, 2300, 3106, 3108, 3110) of a handheld controller (100, 600), the first data indicating at least one of a force or proximity of at least a portion of a hand of a user holding the handheld controller at a first time; storing (3306, 3314, 3320, 3326), based at least in part on the first data, a first indication that a virtual object rendered on a display has been picked up by the user; presenting (3308, 3316, 3322, 3328), on the display and based at least in part on the first indication, a virtual hand of the user holding the virtual object; receiving second data from the one or more sensors, the second data indicating at least one of a force or proximity of at least a portion of the hand at a second time; storing, based at least in part on the second data, a second indication that the virtual hand is to release the virtual object within a predetermined amount of time from the second time; after storing the second indication, analyzing third data received from the one or more sensors, the third data indicating a velocity of the handheld controller, wherein the third data is received at a third time before or after the second time and received prior to the predetermined amount of time expiring; and presenting the virtual hand releasing the virtual object on the display at least partly based on the third data or the predetermined amount of time expiring. receiving first data from one or more sensors (800, 1300, 1800, 2300, 3106, 3108, 3110) of a handheld controller (100, 600), the first data indicating at least one of a force or proximity of at least a portion of a hand of a user holding the handheld controller at a first time; storing (3306, 3314, 3320, 3326), based at least in part on the first data, a first indication that a virtual object rendered on a display has been picked up by the user; presenting (3308, 3316, 3322, 3328), on the display and based at least in part on the first indication, a virtual hand of the user holding the virtual object; receiving second data from the one or more sensors, the second data indicating at least one of a force or proximity of at least a portion of the hand at a second time; storing, based at least in part on the second data, a second indication that the virtual hand is to release the virtual object within a predetermined amount of time from the second time; after storing the second indication, analyzing third data received from the one or more sensors, the third data indicating a velocity of the handheld controller, wherein the third data is received at a third time before or after the second time and received prior to the predetermined amount of time expiring; and presenting the virtual hand releasing the virtual object on the display at least partly based on the third data or the predetermined amount of time expiring.
A solar cell comprising: a silicon substrate of a first conductive type; an emitter layer positioned at an incident surface of the substrate, the emitter layer having a second conductive type opposite the first conductive type; a front electrode (141, 142) positioned on the incident surface of the substrate, the front electrode being electrically connected to the emitter layer; a back passivation layer positioned on a back surface opposite the incident surface of the substrate, the back passivation layer having at least one hole; and a back electrode layer positioned on the back passivation layer, the back electrode layer being electrically connected to the substrate through the at least one hole of the back passivation layer, the back electrode layer including a back electrode disposed in the at least one hole, wherein the back electrode layer contains aluminum and a distribution of a silicon material, characterized in thatan amount of the silicon material contained in the back electrode layer is 6 wt% to 15 wt%, based on the total weight of the back electrode layer, and the back electrode layer contains the silicon material throughout its entire surface. a silicon substrate of a first conductive type; an emitter layer positioned at an incident surface of the substrate, the emitter layer having a second conductive type opposite the first conductive type; a front electrode (141, 142) positioned on the incident surface of the substrate, the front electrode being electrically connected to the emitter layer; a back passivation layer positioned on a back surface opposite the incident surface of the substrate, the back passivation layer having at least one hole; and a back electrode layer positioned on the back passivation layer, the back electrode layer being electrically connected to the substrate through the at least one hole of the back passivation layer, the back electrode layer including a back electrode disposed in the at least one hole, wherein the back electrode layer contains aluminum and a distribution of a silicon material, characterized in thatan amount of the silicon material contained in the back electrode layer is 6 wt% to 15 wt%, based on the total weight of the back electrode layer, and the back electrode layer contains the silicon material throughout its entire surface.
A machine for cutting panels made of wood, plastic or the like, the machine comprising support means defining a support table for at least one panel; a cutting station; at least one feeding device (23, 24) to feed the panel through the cutting station in at least one first direction that is parallel to the support table; and a cutting unit, which is mounted in the cutting station so as to cut or incise the panel; the feeding device (23, 24) comprising at least one holding and transporting member comprising, in turn, a lower jaw defining a support surface for the panel, a guide device, an upper jaw, which is slidingly engaged in the guide device so as to move between a panel clamping position and a panel release position, and a limit-stop surface, which is obtained between said lower and upper jaws (30, 35) so as to stop the panel in the first direction and extends perpendicular to the support surface; and being characterized in that the guide device extends in a second direction that is arranged at an angle other than 0° relative to the limit-stop surface and other than 90° relative to the support surface.
A semiconductor device comprising: - a first doped semiconductor layer, a second doped semiconductor layer, an oxide layer covering the first doped semiconductor layer and the second doped semiconductor layer, wherein the first doped semiconductor layer is a monosilicon layer and wherein the second doped semiconductor layer is a polysilicon layer, - wherein at least one electronic component is formed in the first and/or second semiconductor layer (112, 122), - the semiconductor device, moreover, comprising at least one interconnect wherein the first doped semiconductor layer is electrically connected with the second doped semiconductor layer by means of the interconnect wherein the interconnect comprises a metal alloy which has a first part in contact with the first doped semiconductor layer and a second part in contact with the second doped semiconductor layer and wherein a part of the metal alloy between the first part and the second part crosses over a sidewall of the second doped semiconductor layer, said oxide layer covering said at least one interconnect, - and wherein the semiconductor device, moreover, comprises a stoichiometric passivation layer which covers the first and second doped semiconductor layer (112, 122) and the oxide layer. - a first doped semiconductor layer, a second doped semiconductor layer, an oxide layer covering the first doped semiconductor layer and the second doped semiconductor layer, wherein the first doped semiconductor layer is a monosilicon layer and wherein the second doped semiconductor layer is a polysilicon layer, - wherein at least one electronic component is formed in the first and/or second semiconductor layer (112, 122), - the semiconductor device, moreover, comprising at least one interconnect wherein the first doped semiconductor layer is electrically connected with the second doped semiconductor layer by means of the interconnect wherein the interconnect comprises a metal alloy which has a first part in contact with the first doped semiconductor layer and a second part in contact with the second doped semiconductor layer and wherein a part of the metal alloy between the first part and the second part crosses over a sidewall of the second doped semiconductor layer, said oxide layer covering said at least one interconnect, - and wherein the semiconductor device, moreover, comprises a stoichiometric passivation layer which covers the first and second doped semiconductor layer (112, 122) and the oxide layer.