mhurhangee/ep-ind-claims huggingface dataset:
A sequential operation assembly of microfluidic chips, comprising more than one microfluidic chips, wherein the chips are arranged in sequential, or a parallel operation assembly of microfluidic chips, comprising more than one microfluidic chips, wherein the chips are arranged in parallel; wherein the chip comprises (a) an inlet region at one end of the microfluidic chip, (b) a first flow channel that is in fluidic communication with the inlet region, (c) a divergent channel, which is arranged at the downstream of the flow channel and in fluidic communication with the flow channel and (d) one or more outlet region(s) located at one or both sides of the divergent channel, characterized in that the chip further comprises: a second flow channel arranged at the downstream of the divergent channel; a block structure with rounded corners, which is located in the second flow channel; wherein a distance is kept between each side of the block structure and the wall of the channel; (e) an outlet region(s) at the opposite end of the inlet region of (a) of the microfluidic chip and in fluidic communication with the second flow channel, wherein the width of the divergent channel is gradually enlarged starting from that of the flow channel. a second flow channel arranged at the downstream of the divergent channel; a block structure with rounded corners, which is located in the second flow channel; wherein a distance is kept between each side of the block structure and the wall of the channel; (e) an outlet region(s) at the opposite end of the inlet region of (a) of the microfluidic chip and in fluidic communication with the second flow channel, wherein the width of the divergent channel is gradually enlarged starting from that of the flow channel.
A bicycle frame comprising a base frame, wherein the base frame comprises at least one lower tube and a seat tube, and at least one device (14, 60) which is arranged on the base frame and which is configured as a brace structure and which has a receiving area for receiving a wheel, wherein the device (14, 60) comprises two elastically configured and in parallel connected braces (26, 28) which are arranged on the same side of the wheel plane, wherein said elastically configured braces (26, 28) are constructed in such a way that the bending resistance of the elastically configured braces (26, 28) around an axis, which is arranged perpendicular to the plane of the bicycle plane, is significantly less than around an axis, which is essentially in the bicycle plane, so that the receiving area is resiliently mounted, characterized in that at least one additional fastening element is detachably arranged in such a way that the wheel receptacle is mounted in a substantially non-resiliently manner when the fastening element is mounted, and that the wheel receptacle is mounted in a substantially resilient manner when the fastening element is not mounted. wherein the device (14, 60) comprises two elastically configured and in parallel connected braces (26, 28) which are arranged on the same side of the wheel plane, wherein said elastically configured braces (26, 28) are constructed in such a way that the bending resistance of the elastically configured braces (26, 28) around an axis, which is arranged perpendicular to the plane of the bicycle plane, is significantly less than around an axis, which is essentially in the bicycle plane, so that the receiving area is resiliently mounted, characterized in that at least one additional fastening element is detachably arranged in such a way that the wheel receptacle is mounted in a substantially non-resiliently manner when the fastening element is mounted, and that the wheel receptacle is mounted in a substantially resilient manner when the fastening element is not mounted.
An anode plate, comprising: an anode current collector; a carbon quantum dot layer, comprising carbon quantum dots with a size less than 10 nm, and formed on a surface of the anode current collector; and an anode silicon-containing coating layer, formed on a surface of the carbon quantum dot layer away from the anode current collector; wherein the anode silicon-containing coating layer comprises a silicon-containing coating layer and a graphite coating layer formed on a surface of the silicon-containing coating layer, and the silicon-containing coating layer is located between the graphite coating layer and the carbon quantum dot layer. an anode current collector; a carbon quantum dot layer, comprising carbon quantum dots with a size less than 10 nm, and formed on a surface of the anode current collector; and an anode silicon-containing coating layer, formed on a surface of the carbon quantum dot layer away from the anode current collector; wherein the anode silicon-containing coating layer comprises a silicon-containing coating layer and a graphite coating layer formed on a surface of the silicon-containing coating layer, and the silicon-containing coating layer is located between the graphite coating layer and the carbon quantum dot layer.
An aircraft rotor assembly, comprising: upper and lower hub plates adapted to be mounted to a central rotor mast for rotation therewith; a plurality of radial arms, each arm being connected to at least two flap bearings mounted between the hub plates (93, 95) and forming a discrete flap hinge (59, 107), each flap hinge (59, 107) defining a flap axis and allowing rotation of the associated arm relative to the hub plates (93, 95) and about the corresponding flap axis; and a plurality of blade grips, each grip being rotatably connected to one of the arms for rotation about a pitch axis and adapted for mounting of a blade to each blade grip, such that each blade is capable of rotation with the grip about the pitch axis and capable of rotation together with the corresponding arm relative to the hub plates (93, 95) and about the corresponding flap axis; wherein the at least two flap bearings rotate with the upper and lower hub plates characterized in that the at least two flap bearings are rigidly mounted directly to the upper hub plate and to the lower hubplate. upper and lower hub plates adapted to be mounted to a central rotor mast for rotation therewith; a plurality of radial arms, each arm being connected to at least two flap bearings mounted between the hub plates (93, 95) and forming a discrete flap hinge (59, 107), each flap hinge (59, 107) defining a flap axis and allowing rotation of the associated arm relative to the hub plates (93, 95) and about the corresponding flap axis; and a plurality of blade grips, each grip being rotatably connected to one of the arms for rotation about a pitch axis and adapted for mounting of a blade to each blade grip, such that each blade is capable of rotation with the grip about the pitch axis and capable of rotation together with the corresponding arm relative to the hub plates (93, 95) and about the corresponding flap axis; wherein the at least two flap bearings rotate with the upper and lower hub plates characterized in that the at least two flap bearings are rigidly mounted directly to the upper hub plate and to the lower hubplate.
A method for delivering queued downlink, DL, data to a plurality of first wireless devices, the method performed by a second wireless device and comprising: determining, for each of the plurality of first wireless devices, a presence of a corresponding set of queued DL data (540, 540, 540); transmitting a beacon frame identifying which of the plurality of first wireless devices has queued DL data (540, 540, 540), the beacon frame indicating to each of the identified first wireless devices to transmit a request (530, 530) for delivery of the queued DL data (540, 540, 540) upon receiving permission from the second wireless device; transmitting, to each of the identified first wireless devices, permission to request delivery of queued DL data (540, 540, 540); receiving, from each of the identified first wireless devices, a request (530, 530) for delivery of the queued DL data (540, 540, 540); and concurrently transmitting, to each of the identified first wireless devices, the corresponding set of queued DL data (540, 540, 540). determining, for each of the plurality of first wireless devices, a presence of a corresponding set of queued DL data (540, 540, 540); transmitting a beacon frame identifying which of the plurality of first wireless devices has queued DL data (540, 540, 540), the beacon frame indicating to each of the identified first wireless devices to transmit a request (530, 530) for delivery of the queued DL data (540, 540, 540) upon receiving permission from the second wireless device; transmitting, to each of the identified first wireless devices, permission to request delivery of queued DL data (540, 540, 540); receiving, from each of the identified first wireless devices, a request (530, 530) for delivery of the queued DL data (540, 540, 540); and concurrently transmitting, to each of the identified first wireless devices, the corresponding set of queued DL data (540, 540, 540).
A display device comprising: a display panel; a support frame comprising a plurality of straight portions (311, 313) located at two adjacent outer side surfaces of the display panel and having a substantially equal cross-section and a curved portion connecting the plurality of straight portions and having a curvature; and a plurality of protrusion frames each extending from a straight portion of the plurality of straight portions of the support frame toward an inner portion of the display panel; characterized by the protrusion frames being absent at an area of the curved portion; a mold portion overlapping the plurality of protrusion frames to be joined with the plurality of protrusion frames and being located along an inner surface of the curved portion of the support frame; wherein the straight portions (311, 313) and the curved portion of the support frame are unitary. a display panel; a support frame comprising a plurality of straight portions (311, 313) located at two adjacent outer side surfaces of the display panel and having a substantially equal cross-section and a curved portion connecting the plurality of straight portions and having a curvature; and a plurality of protrusion frames each extending from a straight portion of the plurality of straight portions of the support frame toward an inner portion of the display panel; characterized by the protrusion frames being absent at an area of the curved portion; a mold portion overlapping the plurality of protrusion frames to be joined with the plurality of protrusion frames and being located along an inner surface of the curved portion of the support frame;
Device (D, D') for enlarging a roller shutter box, which device is intended for a box of substantially parallelepipedal shape having an inner face (Ca) and an outer face (Cb) which are connected by two lateral cheeks (Cc), an upper plate (Cd) and a lower plate (Ce), the distance between these plates corresponding to the height of the box, the box having, at at least one lateral end, a notch substantially in the form of a right dihedron whose edge is oriented perpendicularly to the upper and lower plates of the box, the said notch breaching the plates, cutting a lateral cheek into two parts and reducing the width of one (Cb) of the faces of the box, thus creating a recess corresponding to the difference in widths between the two faces (Ca, Cb) of the box, this enlarging device (D, D') comprising a rectangular panel flexible at least about a direction parallel to two of its edges (1c, 1d) intended to be oriented vertically, these edges (1c, 1d) having a length equal to the height of the box, one of these edges being configured to produce an interlocking engagement with the edge (Tc) of an adjacent lateral cheek part, characterized in that this panel has a plurality of fold lines parallel to the said edges (1c, 1d) and can be folded at a right angle about a fold line so as to form a dihedron in the form of two flaps of which a first flap has a width substantially equal to that of the recess to be closed, whereas the second flap can be applied and fixed against the other lateral cheek part, a flexible seal bead being provided along the zones of the panel which are intended to come into contact with the two lateral cheek parts and the edge of the plates of the box.
Method for producing a porous mineral building material based on calcium silicate hydrate, comprising the steps of: (i) providing an aqueous mixture which comprises water, SiO 2, calcium hydroxide, cement, potassium silicate, and a hardening accelerator, wherein first water and potassium silicate are mixed and then the other solid constituents are added and mixed in; (ii.1) providing a foam by introducing a gas, in particular air, into a mixture comprising water and a foaming agent, and mixing the foam into the aqueous mixture from step (i) in order to obtain a raw mixture; or (ii.2) introducing at least one foaming agent into the aqueous mixture from step (i), foaming the resulting mixture while supplying a gas, in particular air, in an oscillation mixer, and optionally transferring the foamed mixture to a further mixer, preferably a horizontal mixer, and mixing at low speed, preferably in the range of 20-200 rpm, to obtain a raw mixture; (iii) introducing the raw mixture into a mould, and leaving the raw mixture in the mould for at least 5 hours, preferably for at least 10 hours, and particularly preferably for at least 15 hours, in order to obtain a raw material; (iv) steam hardening the raw material obtained in step (iii) in an autoclave, if necessary after cutting said raw material into parts; and (v) drying the steam-hardened raw material. (i) providing an aqueous mixture which comprises water, SiO 2, calcium hydroxide, cement, potassium silicate, and a hardening accelerator, wherein first water and potassium silicate are mixed and then the other solid constituents are added and mixed in; (ii.1) providing a foam by introducing a gas, in particular air, into a mixture comprising water and a foaming agent, and mixing the foam into the aqueous mixture from step (i) in order to obtain a raw mixture; or (ii.2) introducing at least one foaming agent into the aqueous mixture from step (i), foaming the resulting mixture while supplying a gas, in particular air, in an oscillation mixer, and optionally transferring the foamed mixture to a further mixer, preferably a horizontal mixer, and mixing at low speed, preferably in the range of 20-200 rpm, to obtain a raw mixture; (iii) introducing the raw mixture into a mould, and leaving the raw mixture in the mould for at least 5 hours, preferably for at least 10 hours, and particularly preferably for at least 15 hours, in order to obtain a raw material; (iv) steam hardening the raw material obtained in step (iii) in an autoclave, if necessary after cutting said raw material into parts; and (v) drying the steam-hardened raw material.
A tyre comprising a tread portion provided with blocks having ground contacting surfaces, wherein at least one of the blocks includes a vertical wall surface connected with the ground contacting surface thereof and extending in a tyre circumferential direction and a lateral wall surface connected with the ground contacting surface thereof and extending in a tyre axial direction, the at least one of the blocks is provided with a chamfered portion formed in such a manner that a corner portion, where the vertical wall surface, the lateral wall surface, and the ground contacting surface intersect with each other, is cut out obliquely, characterized in that the at least one of the blocks is provided with a chamfer edge where the chamfered portion and the ground contacting surface intersect, the chamfered portion is provided with a plurality of first concave portions extending inwardly in a tyre radial direction from the ground contacting surface, and the first concave portions have wavy shapes having amplitudes in a longitudinal direction of the chamfer edge.
An image zooming method, comprising the steps: providing image data captured by a camera; projecting the provided image data on a predetermined three-dimensional surface, wherein the predetermined three-dimensional surface comprises a semi-cylindrical surface or surface of a polygon; transforming the projected image data to a regular and planar standardized grid to obtain transformed image data; applying a predefined zoom function to the transformed image data to obtain zoomed image data, wherein the predefined zoom function is precomputed in advance and keeps the outer borders of the image at a constant coordinate, such that the zoomed image has a same width or a same height; and rendering the zoomed image data to a predetermined screen area. providing image data captured by a camera; projecting the provided image data on a predetermined three-dimensional surface, wherein the predetermined three-dimensional surface comprises a semi-cylindrical surface or surface of a polygon; transforming the projected image data to a regular and planar standardized grid to obtain transformed image data; applying a predefined zoom function to the transformed image data to obtain zoomed image data, wherein the predefined zoom function is precomputed in advance and keeps the outer borders of the image at a constant coordinate, such that the zoomed image has a same width or a same height; and rendering the zoomed image data to a predetermined screen area.
A Papaver somniferum plant wherein the plant is modified and comprises: a genomic deletion to all or part of three genes encoding codeine 3-O-demethylases, a genomic deletion to all or part of five genes encoding thebaine 6-O-demethylases, wherein the expression or activity of said three codeine 3-O-demethylases is undetectable and further wherein the expression or activity of said five thebaine 6-O-demethylases is undetectable wherein the modified plant has a thebaine content that is at least 90% of the total extracted alkaloid content of latex or dried straw when compared to a wild type Papaver somniferum plant comprising functional genes encoding codeine 3-O-demethylases and thebaine 6-O-demethylases. a genomic deletion to all or part of three genes encoding codeine 3-O-demethylases, a genomic deletion to all or part of five genes encoding thebaine 6-O-demethylases, wherein the expression or activity of said three codeine 3-O-demethylases is undetectable and further wherein the expression or activity of said five thebaine 6-O-demethylases is undetectable wherein the modified plant has a thebaine content that is at least 90% of the total extracted alkaloid content of latex or dried straw when compared to a wild type Papaver somniferum plant comprising functional genes encoding codeine 3-O-demethylases and thebaine 6-O-demethylases.
Suction device, in particular dental laboratory suction device, with at least one housing (12a; 12b), with at least one filtering unit (14a; 14b), which is at least partially arranged in the housing (12a; 12b) and which comprises at least one filter (16a; 16b) configured in operation for filtering suctioned air (18a, 20a; 18b; 20b), and with at least one removable dust collecting container (22a; 22b) integrated in the housing (12a; 12b), which is embodied as a dust drawer and is configured for receiving a filtered-out dust (24a; 24b), characterised in that the at least one dust collecting container (22a; 22b) consists at least partially of an electrically conductive plastic material and is earthed in operation in a state when inserted into the housing (12a; 12b).
A filament winding apparatus comprising a rail extending in a first direction, a core material support device for supporting a core material, and a winding device that is adapted to wind a fiber bundle onto an outer peripheral surface of the core material, the winding device comprising: a guide unit having an opening through which the core material can pass, and which is adapted to guide the fiber bundle; and a main frame on which the guide unit is mounted; wherein the main frame is movable relative to the core material in the first direction, characterized in that the main frame is movable in a second direction that is orthogonal to the first direction, and the main frame is rotatable around a first rotational axis extending in a third direction orthogonal to each of the first direction and the second direction. a guide unit having an opening through which the core material can pass, and which is adapted to guide the fiber bundle; and a main frame on which the guide unit is mounted; wherein the main frame is movable relative to the core material in the first direction, characterized in that the main frame is movable in a second direction that is orthogonal to the first direction, and the main frame is rotatable around a first rotational axis extending in a third direction orthogonal to each of the first direction and the second direction.
A method for calibrating an ultrasonic inspection system, comprising: (a) forming a multiplicity of reference standards made of composite material, each reference standard having at least one wrinkle; (b) collecting ultrasonic B-scan data (38, 40, 42) from the multiplicity of reference standards using an ultrasonic inspection system; (c) cutting the reference standards to expose cross sections; (d) imaging the exposed cross sections using a microscope to produce optical cross sections; (e) measuring features of the at least one wrinkle of each reference standard which appear in the optical cross sections to acquire optical cross-section measurement data; and (f) correlating the ultrasonic B-scan data with the optical cross-section measurement data; wherein the method further comprises selecting time and depth axes ranges and time-gate settings for a B-scan window (26, 28) based on results of step (f). (a) forming a multiplicity of reference standards made of composite material, each reference standard having at least one wrinkle; (b) collecting ultrasonic B-scan data (38, 40, 42) from the multiplicity of reference standards using an ultrasonic inspection system; (c) cutting the reference standards to expose cross sections; (d) imaging the exposed cross sections using a microscope to produce optical cross sections; (e) measuring features of the at least one wrinkle of each reference standard which appear in the optical cross sections to acquire optical cross-section measurement data; and (f) correlating the ultrasonic B-scan data with the optical cross-section measurement data;