mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an additive manufacturing machine, comprising: forming a layer of a build material; selectively applying a fusing agent onto the formed layer of build material; applying fusing energy to the build material and fusing agent with a thermal energy source to form an object layer of a three dimensional object and a sacrificial layer of a sacrificial object at the selectively applied fusing agent, the sacrificial layer having a surface size measurable by a camera pixel; sensing a thermal temperature of the sacrificial layer; comparing the sensed thermal temperature of the sacrificial layer to a target temperature; and adjusting a power level of the thermal energy source based on the compared temperatures. forming a layer of a build material; selectively applying a fusing agent onto the formed layer of build material; applying fusing energy to the build material and fusing agent with a thermal energy source to form an object layer of a three dimensional object and a sacrificial layer of a sacrificial object at the selectively applied fusing agent, the sacrificial layer having a surface size measurable by a camera pixel; sensing a thermal temperature of the sacrificial layer; comparing the sensed thermal temperature of the sacrificial layer to a target temperature; and adjusting a power level of the thermal energy source based on the compared temperatures.
Body analysis scales for measuring body values, in particular body fat values, with • a contact plate serving as a weighing platform, on which the person stands during a body value measurement, • two measuring elements arranged next to each other, to be contacted by the person in particular by placing the sole of a foot on the same, with two first electrodes for measuring a dimension correlating with at least one body value, • evaluation electronics, which can calculate the body value to be determined from the dimension, and • a display device for displaying the calculated body value, characterised in that the contact plate consists of an insulating material or is coated with an insulating material, the two first electrodes of the measuring elements are each designed as a first condenser plate and are arranged on the contact plate without direct contact with the person on the side of the contact plate facing away from the feet of the person or in the contact plate, wherein each of the two first electrodes each forms a condenser together with a body part serving as the respective second condenser plate, in particular the respective sole of a foot of the person, and the determination of the body value is realised by means of an impedance measurement, wherein alternating current is applied to the two condensers inside an electric circuit, and the evaluation electronics are designed in such a way that they can determine a dielectric formed between the conductive layer in the body part itself and the respective first condenser plate generated from an underside of the respective foot and a layer of the foot near the skin together with a constant proportion of the contact plate, and can calculate the dimension correlating with a body value from this. • a contact plate serving as a weighing platform, on which the person stands during a body value measurement, • two measuring elements arranged next to each other, to be contacted by the person in particular by placing the sole of a foot on the same, with two first electrodes for measuring a dimension correlating with at least one body value, • evaluation electronics, which can calculate the body value to be determined from the dimension, and • a display device for displaying the calculated body value,
A solid state light emitting device comprising: a light emitting active layer structure (12, 22, 32, 42) having an active layer first side (16, 26) and an active layer second side (17, 27); a first element (11, 21, 31, 41), said first element (11, 21, 31, 41) being a layer and having a first element first side and a first element second side, said first element second side in direct contact with said active layer first side (16, 26); and a lumiphor (52, 62) having a surface in direct contact with said first element first side, wherein the first element does not include a luminescent material, such that, in use, light emitted from the light emitting active layer structure (12, 22, 32, 42) passes through the first element (11, 21, 31, 41) before passing through the lumiphor (52, 62), and the first element (11, 21, 31, 41) has a substantially continuous index of refraction gradient ranging from the index of refraction of the active layer structure in a region of the first element including the first element second side to the index of refraction of a region of the lumiphor in a region of the first element including the first element first side. a light emitting active layer structure (12, 22, 32, 42) having an active layer first side (16, 26) and an active layer second side (17, 27); a first element (11, 21, 31, 41), said first element (11, 21, 31, 41) being a layer and having a first element first side and a first element second side, said first element second side in direct contact with said active layer first side (16, 26); and a lumiphor (52, 62) having a surface in direct contact with said first element first side, wherein the first element does not include a luminescent material, such that, in use, light emitted from the light emitting active layer structure (12, 22, 32, 42) passes through the first element (11, 21, 31, 41) before passing through the lumiphor (52, 62), and the first element (11, 21, 31, 41) has a substantially continuous index of refraction gradient ranging from the index of refraction of the active layer structure in a region of the first element including the first element second side to the index of refraction of a region of the lumiphor in a region of the first element including the first element first side.
Vehicle pneumatic tyre with a tread strip with at least one profile rib (1, 2), each of which is delimited on both sides by a circumferential groove (3, 3', 4) with a rib outer surface and crossing sipes (8, 9) which each have two sipe walls (8b, 8c, 9b, 9c), a width (b E) of 0.4 mm to 2.0 mm and a maximum depth (t E) of at least 70% of the profile depth (Tur), and which in plan view each have a first sipe portion (8 I, 9 I) and a second sipe portion (8 II, 9 II), which is adjacent to the former and opens into the one circumferential groove (3, 4), and a vertex point at the connection of the sipe portions (8 I, 8 II, 9 I, 9 II), wherein a first chamfer-like extension (10, 12) starting from the rib outer surface and running over the entire first sipe portion (8 I, 9 I) and a second chamfer-like extension (11, 13) starting from the rib outer surface and running over the entire second sipe portion (8 II, 9 II) are formed on each sipe (8, 9), wherein the first and the second chamfer-like extension (10, 11, 12, 13) each have an oblique surface (10b, 11b, 12b, 13b) extending over their entire extension with a bounding edge (10a, 11a, 12a, 13a) lying on the rib outer surface, wherein the first and second chamfer-like extensions (10, 11, 12, 13) are adjacent to the same sipe wall (8c, 9c), and wherein the bounding edges (10a, 11a, 12a, 13a) of the oblique surfaces (10b, 11b, 12b, 13b) are adjacent to the rib outer surface, characterized in that the oblique surfaces (10b, 11b, 12b, 13b) extend to the mutual connection of the bounding edges (10a, 11a, 12a, 13a), wherein the first and second chamfer-like extensions (10, 11, 12, 13) each have a plateau surface (10c, 11c, 12c, 13c) which is adjacent to the oblique surface (10b, 11b, 12b, 13b), runs to the sipe wall (8c, 9b), is elongate in plan view, and has a width (b PF) of from 0.4 mm to 0.8 mm, wherein the plateau surface (10c, 11c, 12c, 13c) ends at the mutual connection of the bounding edges (10a, 11a, 12a, 13a) of the oblique surfaces (10b, 11b, 12b, 13b) at the level of the rib outer surface, and, starting from there, drops into the radial interior at least over a plateau surface portion (10c', 12c'), as viewed in longitudinal section through the sipe (8, 9).
A liquid detergent or cleaner comprising (a) a protease which is selected from the group consisting of a. protease comprising an amino acid sequence according to SEQ ID No. 2; b. protease which comprises an amino acid sequence modified in at least one position compared to SEQ ID No. 2, where the modification in the count according to SEQ ID No. 1 is selected from the group consisting of: i. threonine at position 3, ii. isoleucine at position 4, iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188, vi. methionine at position 193, vii. isoleucine at position 199, viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); (b) a cellulase. (a) a protease which is selected from the group consisting of a. protease comprising an amino acid sequence according to SEQ ID No. 2; b. protease which comprises an amino acid sequence modified in at least one position compared to SEQ ID No. 2, where the modification in the count according to SEQ ID No. 1 is selected from the group consisting of: i. threonine at position 3, ii. isoleucine at position 4, iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188, vi. methionine at position 193, vii. isoleucine at position 199, viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); a. protease comprising an amino acid sequence according to SEQ ID No. 2; b. protease which comprises an amino acid sequence modified in at least one position compared to SEQ ID No. 2, where the modification in the count according to SEQ ID No. 1 is selected from the group consisting of: i. threonine at position 3, ii. isoleucine at position 4, iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188, vi. methionine at position 193, vii. isoleucine at position 199, viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); i. threonine at position 3, ii. isoleucine at position 4, iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188, vi. methionine at position 193, vii. isoleucine at position 199, viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); (b) a cellulase.
A replaceable unit to be removably inserted into an image forming apparatus, comprising: an installation detector board with a major surface, a first edge, a second edge, a third edge, and a fourth edge, the first edge being on a side of the installation detector board opposite the second edge and the third edge being on a side of the installation detector board opposite the fourth edge; a body in which a first positioning portion and a second positioning portion are formed and aligned in a first direction such that the first positioning portion abuts the first edge and the second positioning portion abuts the second edge; and a retainer (87, 287) separate from the body (41 a) and mounted on the body (41 a) in a press-fitted relation, the retainer (87, 287) abutting at least one of (i) the third edge and a part of the major surface in the vicinity of the third edge and (ii) the fourth edge and a part of the major surface in the vicinity of the fourth edge to prevent the installation detector board from moving relative to the body in a second direction substantially normal to the major surface and in a third direction substantially parallel to the major surface. an installation detector board with a major surface, a first edge, a second edge, a third edge, and a fourth edge, the first edge being on a side of the installation detector board opposite the second edge and the third edge being on a side of the installation detector board opposite the fourth edge; a body in which a first positioning portion and a second positioning portion are formed and aligned in a first direction such that the first positioning portion abuts the first edge and the second positioning portion abuts the second edge; and a retainer (87, 287) separate from the body (41 a) and mounted on the body (41 a) in a press-fitted relation, the retainer (87, 287) abutting at least one of (i) the third edge and a part of the major surface in the vicinity of the third edge and (ii) the fourth edge and a part of the major surface in the vicinity of the fourth edge to prevent the installation detector board from moving relative to the body in a second direction substantially normal to the major surface and in a third direction substantially parallel to the major surface.
A thermoforming machine comprising conveying means for conveying a band of material in a forward movement direction of the machine, and at least one guide device for guiding the movement of the conveying means in the forward movement direction, the guide device comprising a base support including at least one profile and at least one lower guide element attached to the profile, at least one upper guide element, and a channel which is defined between both guide elements (1, 2), and which is configured to allow the guided forward movement of the conveying means therethrough to drive said band, characterized in that the upper guide element is detachably attached to the base support to allow access to the conveying means to perform cleaning operations, said upper guide element being disassembled from the base support to perform cleaning operations.
A system comprising: a three-dimensional printer having a three-dimensional printing mechanism that is configured to form a physical object in three dimensions; and a first computing device communicatively coupled to the three-dimensional printer, the first computing device including a three-dimensional printing module implemented at least partially in hardware to cause the three-dimensional printer to form the physical object in three dimensions as having functionality configured to communicate with a second computing device, characterized in that the three-dimensional printing module is configured to: output a user interface having a plurality of different options for predefined functionality that is includable in the object that is formable by the three-dimensional printer; determine which components are to be included in the object to provide selected said functionality; and compute an arrangement of the components for inclusion as part of the object. a three-dimensional printer having a three-dimensional printing mechanism that is configured to form a physical object in three dimensions; and a first computing device communicatively coupled to the three-dimensional printer, the first computing device including a three-dimensional printing module implemented at least partially in hardware to cause the three-dimensional printer to form the physical object in three dimensions as having functionality configured to communicate with a second computing device, the three-dimensional printing module is configured to: output a user interface having a plurality of different options for predefined functionality that is includable in the object that is formable by the three-dimensional printer; determine which components are to be included in the object to provide selected said functionality; and compute an arrangement of the components for inclusion as part of the object. output a user interface having a plurality of different options for predefined functionality that is includable in the object that is formable by the three-dimensional printer; determine which components are to be included in the object to provide selected said functionality; and compute an arrangement of the components for inclusion as part of the object.
A method for aligning a lens array to a cell array of a concentration photovoltaic module, wherein the lens array comprises a plurality of concentration lenses (223a to 223h) and alignment windows (221a to 221d), and the cell array comprises a plurality of solar cells (232a to 232h) and alignment points (231a, 231b, 231c and 231d), said method comprising the steps of: - providing at least one collimation module comprising collimated light sources (211a, 211b, 211c and 211d) to emit collimated light beams; - attaching the lens array to the bottom of the collimation module so that the alignment windows (221a to 221d) of the lens array are located under the collimated light sources (211 a, 211b, 211c and 211d); - locating the cell array under the lens array so that the alignment points of the cell array (231a, 231b, 231c, 231d) are located under the alignment windows (221a to 221d) of the lens array - casting the collimated light beams of said collimated light sources (211a, 211b, 211c and 211d) onto the cell array through the alignment windows (221a to 221d) of the lens array; and - adjusting the relative position between the lens array and the cell array so that the collimated light beams, which are passing through the alignment windows (221a to 221 d) of the lens array, are directed to the alignment points (231a, 231 b, 231c and 231d) of the cell array resulting in that the axes of the light beams emitted from the concentration lenses (223a to 223h) of the lens array are directed to the centers of the solar cells (232a to 232h) of the cell array. - providing at least one collimation module comprising collimated light sources (211a, 211b, 211c and 211d) to emit collimated light beams; - attaching the lens array to the bottom of the collimation module so that the alignment windows (221a to 221d) of the lens array are located under the collimated light sources (211 a, 211b, 211c and 211d); - locating the cell array under the lens array so that the alignment points of the cell array (231a, 231b, 231c, 231d) are located under the alignment windows (221a to 221d) of the lens array - casting the collimated light beams of said collimated light sources (211a, 211b, 211c and 211d) onto the cell array through the alignment windows (221a to 221d) of the lens array; and - adjusting the relative position between the lens array and the cell array so that the collimated light beams, which are passing through the alignment windows (221a to 221 d) of the lens array, are directed to the alignment points (231a, 231 b, 231c and 231d) of the cell array resulting in that the axes of the light beams emitted from the concentration lenses (223a to 223h) of the lens array are directed to the centers of the solar cells (232a to 232h) of the cell array.
A heat-not-burn tobacco device, configured to heat an aerosol-generating substrate so as to generate an aerosol, comprising: a housing; a heating assembly, which is provided inside the housing, wherein the heating assembly comprises a heating chamber that extends along an axial direction and that is configured to contain the aerosol-generating substrate; a containing cavity, which is located at one end of the heating assembly and in communication with the heating chamber; and a moving member, which is removably connected on the housing and comprises an insertion box that can be inserted into the containing cavity, at least part of the insertion box being axially aligned with the heating chamber so as to receive a residue formed inside the heating chamber; characterized in that the moving member is provided with an air inlet part (312, 314) that is in communication with an inside of the insertion box, and the air inlet part (312, 314) is configured to allow external air to enter the inside of the insertion box and flow into the heating chamber via the insertion box. a housing; a heating assembly, which is provided inside the housing, wherein the heating assembly comprises a heating chamber that extends along an axial direction and that is configured to contain the aerosol-generating substrate; a containing cavity, which is located at one end of the heating assembly and in communication with the heating chamber; and a moving member, which is removably connected on the housing and comprises an insertion box that can be inserted into the containing cavity, at least part of the insertion box being axially aligned with the heating chamber so as to receive a residue formed inside the heating chamber; characterized in that the moving member is provided with an air inlet part (312, 314) that is in communication with an inside of the insertion box, and the air inlet part (312, 314) is configured to allow external air to enter the inside of the insertion box and flow into the heating chamber via the insertion box.
An angle plug with an angled plug housing and with a flanged sleeve surrounding the plug housing on the circumferential side in the area of a first plug housing section, wherein the flanged sleeve is attached to the first plug housing section by means of an axial retaining device acting towards a longitudinal axis of the first plug housing section, wherein the axial retaining device comprises a radial stop, which extends from an inner side of the flanged sleeve towards an outer side of the first plug housing section, and comprises a counter bearing, which is in operative connection with the first plug housing section for fixing the axial position to each other, and the axial retaining device comprises a spring element, which is arranged in a clearance between the inner side of the flanged sleeve and an outer side of the first plug housing section and is retained prestressed generating an axial spring force between the radial stop and the counter bearing, characterized in that the counter bearing comprises a locking ring, which is locked in a locking groove in the outer side (12, 26) of the first plug housing section by a locking device, and the counter bearing comprises a support ring formed separately from the locking ring, on which the spring element is supported.
A socket structure, comprising: a socket body having a panel and at least one socket unit, wherein the socket body has a receiving slot; a connection wire, wherein one end of the connection wire extends into the socket body; and an electrical connector connected with a second end of the connection wire, wherein the connection wire and the electrical connector are selectively received in the receiving slot or extend to outside of the receiving slot, characterized in that the panel is pivoted with a carrying board, and the carrying board can be rotated to a perpendicular position against the panel or stacked in a parallel position against the front side of the panel. a socket body having a panel and at least one socket unit, wherein the socket body has a receiving slot; a connection wire, wherein one end of the connection wire extends into the socket body; and an electrical connector connected with a second end of the connection wire, wherein the connection wire and the electrical connector are selectively received in the receiving slot or extend to outside of the receiving slot, characterized in that the panel is pivoted with a carrying board, and the carrying board can be rotated to a perpendicular position against the panel or stacked in a parallel position against the front side of the panel.
An oligonucleotide comprising at least one phosphorotrithioate internucleoside linkage of formula wherein (A 1) is a 3'-nucleoside, (A 2) is a 5'-nucleoside and R is hydrogen.
Container (10, 10') for the laboratory area, having a body and a layer that is opaque to an optical reader, is applied to the body and has clearances in the form of machine-readable data, the body having at least one local material modification, and the material modification together with the opaque layer forming a reading area, in which the machine-readable data can be read from the outside by an optical reader on the basis of the optical contrast between the material modification and the opaque layer.