mhurhangee/ep-ind-claims huggingface dataset:
A wafer transfer system for use in a photolithography system comprising a wafer storage apparatus, a pre-alignment apparatus, a buffer stage and a wafer stage, wherein the wafer transfer system comprises: a dual-arm robot, configured to take a wafer to be exposed from the wafer storage apparatus and transfer the wafer to be exposed onto the pre-alignment apparatus and further configured to remove an exposed wafer from the buffer stage and place the exposed wafer back into the wafer storage apparatus; a wafer-loading linear robot, configured to transfer a pre-aligned wafer from the pre-alignment apparatus onto the wafer stage; and a wafer-unloading linear robot, configured to transfer the exposed wafer onto the buffer stage. a dual-arm robot, configured to take a wafer to be exposed from the wafer storage apparatus and transfer the wafer to be exposed onto the pre-alignment apparatus and further configured to remove an exposed wafer from the buffer stage and place the exposed wafer back into the wafer storage apparatus; a wafer-loading linear robot, configured to transfer a pre-aligned wafer from the pre-alignment apparatus onto the wafer stage; and a wafer-unloading linear robot, configured to transfer the exposed wafer onto the buffer stage.
A beta-glucanase variant, comprising a substitution at the positions corresponding to positions M29 and M180 of the polypeptide of SEQ ID NO: 3 or SEQ ID NO: 4, wherein said substitution in said position corresponding to position M29 is an amino acid selected among: Ala, Arg, Asn, Asp, Cys, Gin, Glu, Gly, His, Ile, Leu, Lys, Phe, Pro, Ser, Thr, Trp, Tyr or Val, the variant has beta-glucanase activity, wherein the variant has at least 95%, at least 96%, at least 97%, at least 98%, or at least 99%, but less than 100% sequence identity to amino acids 1 to 214 of the polypeptide of SEQ ID NO: 3 or SEQ ID NO: 4.
A seat frame, comprising: a seat back frame attached to a seating frame via a reclining mechanism, the seat back frame including: a pair of side frames (15, 15) arranged so as to be spaced from each other at least in a left and right direction and to extend in an upper and lower direction; a lower frame for coupling the pair of the side frames (15, 15) in a vicinity of the reclining mechanism; and an energy absorbing member attached on a front side of the lower frame, wherein the energy absorbing member is plastically deformable by pressing from a backrest front surface side, characterized in that the lower frame includes a pair of side portions (17a, 17a) respectively fixed to the pair of the side frames (15, 15), and a coupling portion for coupling the pair of the side portions (17a, 17a), and the energy absorbing member has a plastically-deformable deformation portion arranged on a front side of the coupling portion, a fixed end formed so as to be continuous to one side of the deformation portion and fixed only to the coupling portion, and a free end formed on an opposite side of the fixed end relative to the deformation portion. a seat back frame attached to a seating frame via a reclining mechanism, the seat back frame including: a pair of side frames (15, 15) arranged so as to be spaced from each other at least in a left and right direction and to extend in an upper and lower direction; a lower frame for coupling the pair of the side frames (15, 15) in a vicinity of the reclining mechanism; and an energy absorbing member attached on a front side of the lower frame, wherein the energy absorbing member is plastically deformable by pressing from a backrest front surface side, characterized in that the lower frame includes a pair of side portions (17a, 17a) respectively fixed to the pair of the side frames (15, 15), and a coupling portion for coupling the pair of the side portions (17a, 17a), and a pair of side frames (15, 15) arranged so as to be spaced from each other at least in a left and right direction and to extend in an upper and lower direction; a lower frame for coupling the pair of the side frames (15, 15) in a vicinity of the reclining mechanism; and an energy absorbing member attached on a front side of the lower frame, wherein the energy absorbing member is plastically deformable by pressing from a backrest front surface side, characterized in that the lower frame includes a pair of side portions (17a, 17a) respectively fixed to the pair of the side frames (15, 15), and a coupling portion for coupling the pair of the side portions (17a, 17a), and the energy absorbing member has a plastically-deformable deformation portion arranged on a front side of the coupling portion, a fixed end formed so as to be continuous to one side of the deformation portion and fixed only to the coupling portion, and a free end formed on an opposite side of the fixed end relative to the deformation portion.
Tractor (1, 21) having a loading area and/or a trailer device for at least one trailer, wherein the tractor (1, 21) has a control device for limiting a velocity of the tractor (1, 21) and a ground profile-determining device (10, 11; 24), wherein the ground profile-determining device (10, 11) is configured to determine a current ground profile and to pass on this information to the control device, and the control device is configured to limit the velocity of the tractor (1, 21) to a maximum permissible velocity in accordance with a ground profile determined by the ground profile-determining device (10, 11; 24), characterized in that the ground profile-determining device has an angle sensor (10, 11; 24) for determining the position of the tractor (1, 21) relative to the vertical.
A black film comprising: a thermoplastic resin that contains two or more types of dyes other than black, wherein a thickness T is 45 to 550 μm, a total concentration C of the dyes other than black is 0.4 to 5 mass% with respect to the thermoplastic resin, the total concentration C of the dyes and the thickness T satisfy the following expression, in a L ∗ a ∗ b ∗ color system measurement compliant with JIS Z 8781-4, L ∗ (lightness) is no more than 10, an absolute value of a ∗ is no more than 2.0, and an absolute value of b ∗ is no more than 2.0, and a total light transmittance obtained after the black film is stretched twofold in one axial direction at a temperature higher than a glass transition temperature by 20°C is no more than 3.0%, C × T ≥ 210 wherein, in the expression, the unit of T is μm and the unit of C is mass%, and wherein the total light transmittance is determined with a spectrophotometer and the measurement is carried out with an A light source, at a viewing angle of 2°, and in a reflection mode in accordance with JIS Z8722. a thermoplastic resin that contains two or more types of dyes other than black, wherein a thickness T is 45 to 550 μm, a total concentration C of the dyes other than black is 0.4 to 5 mass% with respect to the thermoplastic resin, the total concentration C of the dyes and the thickness T satisfy the following expression, in a L ∗ a ∗ b ∗ color system measurement compliant with JIS Z 8781-4, L ∗ (lightness) is no more than 10, an absolute value of a ∗ is no more than 2.0, and an absolute value of b ∗ is no more than 2.0, and a total light transmittance obtained after the black film is stretched twofold in one axial direction at a temperature higher than a glass transition temperature by 20°C is no more than 3.0%, C × T ≥ 210 wherein, in the expression, the unit of T is μm and the unit of C is mass%, and wherein the total light transmittance is determined with a spectrophotometer and the measurement is carried out with an A light source, at a viewing angle of 2°, and in a reflection mode in accordance with JIS Z8722.
A fluid ejection device comprising a first set of firing groups (FG2 704a, FG3 704b) a second set of firing groups (FG4, 704c, FG5 704d) a first address generator for generating first address signals (∼A1-∼A7) for the first set of firing groups, a second address generator for generating second address signals (~B1-~B7) for the second set of firing groups, the first and second address generators being connected to a control line for receiving the same control pulses (CSYNC) and to a plurality of select lines (708a to 708e) for receiving the same select pulses (SEL1 to SEL5), characterised in that the first address generator is configured to respond within a first series of select pulses on the respective select lines to a control pulse (CSYNC) coincident with a select pulse on a first one of the select lines to set a direction of addressing, the direction of addressing of each firing group being dependent on the voltage level of the associated control pulse at the time of the select pulse on the said first one of the select lines; the second address generator is configured to respond within the first series of select pulses on the respective select lines to a control pulse (CSYNC) coincident with a select pulse on a second one of the select lines to set a direction of addressing, the direction of addressing of each firing group being dependent on the voltage level of the associated control pulse at the time of the select pulse on the said second one of the select lines; the address generators are configured to respond to control pulses coincident with other select pulses in a second series of select pulses to initiate addressing of the firing groups and the address generators are configured to generate addresses for the firing groups within a third series of select pulses.
An extra-fine fiber sheet comprising an extra-fine fiber assembly, wherein the assembly includes a solvent-spinnable polymer having a weight average molecular weight of 5,000 to 100,000 as a main component and a polymer having a weight average molecular weight equal to or more than 10 times as large as that of the polymer as an accessory component; wherein the polymer is (i) an ethylene-vinyl alcohol copolymer or (ii) a polyamide comprising a dicarboxylic acid unit and a diamine unit; the polymer is a polyethylene oxide, a polyethylene glycol or a polyacrylamide; and the assembly comprises constituent fibers having an average fiber diameter of 10 to 500 nm.
A machine type communication, MTC, device communication method, comprising: receiving (601, 801), by a first network element, a trigger request, wherein the trigger request comprises trigger information; sending (602, 802), by the first network element, a query message to a second network element, wherein the query message comprises an identifier of a receiver of the trigger information, an identifier of a sender of the trigger information, and a trigger indication, checking by the second network element according to the trigger indication, whether the sender is authorized to send the trigger information to the receiver, wherein the trigger indication is generated by the first network element according to the trigger request and wherein the first network element is an MTC Interworking Function, MTC-IWF, or a Short Message Service Gateway Mobile Switching Center, SMS-GMSC, the second network element is a Home Location Register, HLR, or Home Subscriber Server, HSS; and receiving (603, 804), by the first network element, a response message sent by the second network element, wherein the response message comprises a check result of the check, and executing or not executing (603, 805), according to the check result in the response message, an operation of sending the trigger information. receiving (601, 801), by a first network element, a trigger request, wherein the trigger request comprises trigger information; sending (602, 802), by the first network element, a query message to a second network element, wherein the query message comprises an identifier of a receiver of the trigger information, an identifier of a sender of the trigger information, and a trigger indication, checking by the second network element according to the trigger indication, whether the sender is authorized to send the trigger information to the receiver, wherein the trigger indication is generated by the first network element according to the trigger request and wherein the first network element is an MTC Interworking Function, MTC-IWF, or a Short Message Service Gateway Mobile Switching Center, SMS-GMSC, the second network element is a Home Location Register, HLR, or Home Subscriber Server, HSS; and receiving (603, 804), by the first network element, a response message sent by the second network element, wherein the response message comprises a check result of the check, and executing or not executing (603, 805), according to the check result in the response message, an operation of sending the trigger information.
A method for producing a porous body including the steps of; (a) a step of acquiring porous body data which is data representing a temporary porous body having porosity higher than target porosity, and which associates position information indicating a three-dimensional position of a voxel with voxel type information containing information capable of discriminating whether the voxel is a space voxel representing space or object voxel representing object; (b) a step of deriving information about a flow rate for each space voxel during passage of a fluid through inside of the porous body represented by the porous body data by performing fluid analysis based on the porous body data; (c) a step of preferentially replacing the voxel having a low flow rate among the space voxels in the porous body data with the object voxel based on the information about a flow rate, and adjusting the porosity of the porous body data to the target porosity; and (d) a step of forming a porous body based on the porous body data after replacement. (a) a step of acquiring porous body data which is data representing a temporary porous body having porosity higher than target porosity, and which associates position information indicating a three-dimensional position of a voxel with voxel type information containing information capable of discriminating whether the voxel is a space voxel representing space or object voxel representing object; (b) a step of deriving information about a flow rate for each space voxel during passage of a fluid through inside of the porous body represented by the porous body data by performing fluid analysis based on the porous body data; (c) a step of preferentially replacing the voxel having a low flow rate among the space voxels in the porous body data with the object voxel based on the information about a flow rate, and adjusting the porosity of the porous body data to the target porosity; and (d) a step of forming a porous body based on the porous body data after replacement.
Wire netting (10a; 10b), in particular a safety net, with a plurality of helices (12a, 14a; 12b) which are braided with each other, of which at least one helix (12a, 14a; 12b) is bent from at least one single wire, a wire bundle, a wire strand, a wire rope and/or another longitudinal element (16a; 16b) with at least one wire (18a; 18b), which in particular comprises a high-tensile steel, the at least one helix (12a, 14a; 12b) having at least one first leg (20a; 20b), at least one second leg (22a; 22b) as well as at least one bending region (24a; 24b) connecting the first leg (20a; 20b) and the second leg (22a; 22b) to each other, characterised in that the longitudinal element (16a; 16b) is bent at least substantially torsion-free in itself along a contour of the first leg (20a; 20b) and/or of the second leg (22a; 22b).
Compound for use in therapy selected from the group consisting of: (i) a polypeptide comprising the amino acid sequence set forth as SEQ ID NO: 10; (ii) a polynucleotide coding for said polypeptide; (iii) a vector comprising said polynucleotide; and (iv) a host cell genetically engineered expressing said polypeptide. (i) a polypeptide comprising the amino acid sequence set forth as SEQ ID NO: 10; (ii) a polynucleotide coding for said polypeptide; (iii) a vector comprising said polynucleotide; and (iv) a host cell genetically engineered expressing said polypeptide.
A spring element (1, 1'), in particular jounce bumper, for a vehicle shock absorber, comprising: a longitudinal axis and a base body having a length (t) along the longitudinal axis, the base body being elastically deformable between an uncompressed basic state and a compressed state in which the base body is at least partially compressed in the direction of the longitudinal axis, an end portion configured for contact against a damper cap of the vehicle shock absorber; wherein the end portion comprises a contact surface that is wound along a helix around the longitudinal axis. a longitudinal axis and a base body having a length (t) along the longitudinal axis, the base body being elastically deformable between an uncompressed basic state and a compressed state in which the base body is at least partially compressed in the direction of the longitudinal axis, an end portion configured for contact against a damper cap of the vehicle shock absorber; wherein the end portion comprises a contact surface that is wound along a helix around the longitudinal axis.
A wearable device comprising: a shoe; a base provided in an insole of the shoe; a pressure sensing unit provided in the base to sense pressure; an acupressure unit provided to apply an acupressure to a user's foot, according to a sensing result of the pressure sensing unit; and a wireless communication unit synchronizable with an external mobile terminal, wherein the pressure sensing unit is provided in plurality, wherein the acupressure unit is provided in plurality, each of the plurality of acupressure units is associated with a corresponding one of the pressure sensing units, each of the plurality of acupressure units includes an acupressure projection, and wherein the wearable device further comprises a control unit to control the plurality of the acupressure units such that the acupressure projections are selectively controlled based on the pressure sensed by the corresponding pressure sensing unit. a shoe; a base provided in an insole of the shoe; a pressure sensing unit provided in the base to sense pressure; an acupressure unit provided to apply an acupressure to a user's foot, according to a sensing result of the pressure sensing unit; and a wireless communication unit synchronizable with an external mobile terminal, wherein the pressure sensing unit is provided in plurality, wherein the acupressure unit is provided in plurality, each of the plurality of acupressure units is associated with a corresponding one of the pressure sensing units, each of the plurality of acupressure units includes an acupressure projection, and wherein the wearable device further comprises a control unit to control the plurality of the acupressure units such that the acupressure projections are selectively controlled based on the pressure sensed by the corresponding pressure sensing unit.
Intermediate holder which has at least one holding means and at least one fastening means, wherein the intermediate holder is manufactured from one material strip and the holding means and fastening means (5, 6) of said intermediate holder are configured as formed lugs of the material strip that at the one lug end of said lugs by way of a bent region are connected to the material strip and that by way of the opposite other free lug end of said lugs protrude beyond the circumference of the material strip, characterized in that the at least one holding means is specified for fastening the intermediate holder in a water outlet of a sanitary outlet fitting and the at least one fastening means is provided for releasably fastening a sanitary functional unit, in that that lug end of the at least one formed lug that is specified as a fastening means that protrudes beyond the internal circumference of the material strip is configured as a portion of a turn of an internal thread, and in that the internal thread is specified for an external thread on the external circumference of the sanitary functional unit.
A soft magnetic alloy comprising a main component of (Fe (1-(α+β)) X1 α X2 β) (1- ( a+b+c+d+e+f+g)) M a B b P c Si d C e S f Ti g, in which X1 is one or more of Co and Ni, X2 is one or more of Al, Mn, Ag, Zn, Sn, As, Sb, Cu, Cr, Bi, N, O, and rare earth elements, M is one or more of Nb, Hf, Zr, Ta, Mo, W, and V, 0.040≤a≤0.10 is satisfied, 0.020<b≤0.20 is satisfied, 0.040<c≤0.15 is satisfied, 0≤d≤0.060 is satisfied, 0≤e≤0.030 is satisfied, 0≤f≤0.010 is satisfied, 0≤g≤0.0010 is satisfied, α≥2:0 is satisfied, β≥0 is satisfied, 0≤α+β≤0.50 is satisfied, and at least one or more of f and g are larger than zero, wherein the soft magnetic alloy has a nanohetero structure where initial fine crystals exist in an amorphous phase. X1 is one or more of Co and Ni, X2 is one or more of Al, Mn, Ag, Zn, Sn, As, Sb, Cu, Cr, Bi, N, O, and rare earth elements, M is one or more of Nb, Hf, Zr, Ta, Mo, W, and V, 0.040≤a≤0.10 is satisfied, 0.020<b≤0.20 is satisfied, 0.040<c≤0.15 is satisfied, 0≤d≤0.060 is satisfied, 0≤e≤0.030 is satisfied, 0≤f≤0.010 is satisfied, 0≤g≤0.0010 is satisfied, α≥2:0 is satisfied, β≥0 is satisfied, 0≤α+β≤0.50 is satisfied, and at least one or more of f and g are larger than zero, wherein the soft magnetic alloy has a nanohetero structure where initial fine crystals exist in an amorphous phase.
A light distribution characteristic measurement apparatus for measuring a light distribution characteristic of a light source, comprising: a detecting unit adapted to detect light from the light source; a mirror adapted to reflect the light from the light source to direct the light to the detecting unit; a movement mechanism (11, 12) adapted to move the detecting unit and the mirror relatively to the light source; wherein the movement mechanism (11, 12) is adapted to rotate the detecting unit and the mirror integrally with each other around the light source about a first axis (X, Y) and a second axis (Y, X), the second axis being orthogonal to the first axis; and a rotation mechanism is adapted to rotate the mirror about an axis parallel to the second axis while maintaining an optical path length from the light source to the detecting unit, and the center of the light source being located at an intersection of the first axis (X, Y) and the second axis (Y, X); and a processor is adapted to calculate the light distribution characteristic of the light source, based on a plurality of measurement results that are detected by the detecting unit under a condition that the detecting unit and the mirror are arranged at a plurality of measurement positions relative to the light source and the mirror is oriented at different rotational angles for each measurement position. a detecting unit adapted to detect light from the light source; a mirror adapted to reflect the light from the light source to direct the light to the detecting unit; a movement mechanism (11, 12) adapted to move the detecting unit and the mirror relatively to the light source; wherein the movement mechanism (11, 12) is adapted to rotate the detecting unit and the mirror integrally with each other around the light source about a first axis (X, Y) and a second axis (Y, X), the second axis being orthogonal to the first axis; and a rotation mechanism is adapted to rotate the mirror about an axis parallel to the second axis while maintaining an optical path length from the light source to the detecting unit, and the center of the light source being located at an intersection of the first axis (X, Y) and the second axis (Y, X); and a processor is adapted to calculate the light distribution characteristic of the light source, based on a plurality of measurement results that are detected by the detecting unit under a condition that the detecting unit and the mirror are arranged at a plurality of measurement positions relative to the light source and the mirror is oriented at different rotational angles for each measurement position.