mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a reinforced engineered hide, the method comprising: placing a first plurality of collagen-releasing cells on a first surface of a mesh, the mesh having a first surface and a second surface; culturing the first plurality of collagen-releasing cells to form a first layer of collagen covering the first surface; flipping the mesh over and placing a second plurality of collagen-releasing cells onto the second surface of the mesh; and culturing the second plurality of collagen-releasing cells to form a second layer of collagen covering the second surface, wherein the mesh is embedded between the first and second layers of collagen and the first and second layers of collagen are connected to each other through the mesh. placing a first plurality of collagen-releasing cells on a first surface of a mesh, the mesh having a first surface and a second surface; culturing the first plurality of collagen-releasing cells to form a first layer of collagen covering the first surface; flipping the mesh over and placing a second plurality of collagen-releasing cells onto the second surface of the mesh; and culturing the second plurality of collagen-releasing cells to form a second layer of collagen covering the second surface, wherein the mesh is embedded between the first and second layers of collagen and the first and second layers of collagen are connected to each other through the mesh.
A light emitting diode (LED) display device comprising: an LED module comprising: a circuit board ; a plurality of LEDs mounted on the circuit board ; and a first fastening member located on a rear face of the circuit board , formed of magnetizable material and magnetized to one of a N-pole and a S-pole by an external magnetic force; wherein the LED display device further comprises: a bracket configured to support the LED module and including a second fastening member at a location corresponding to the first fastening member , the second fastening member configured to be fastened to the first fastening member by a magnetic force, wherein the LED module is arranged to be moved in a fastening direction towards the bracket to fasten the first fastening member to the second fastening member , and wherein the second fastening member comprises a first magnet (121b1) configured to be linearly moved in a direction which is the same as the fastening direction or opposite to the fastening direction according to a polarity of the first fastening member . an LED module comprising: a circuit board ; a plurality of LEDs mounted on the circuit board ; and a first fastening member located on a rear face of the circuit board , formed of magnetizable material and magnetized to one of a N-pole and a S-pole by an external magnetic force; a circuit board ; a plurality of LEDs mounted on the circuit board ; and a first fastening member located on a rear face of the circuit board , formed of magnetizable material and magnetized to one of a N-pole and a S-pole by an external magnetic force; wherein the LED display device further comprises: a bracket configured to support the LED module and including a second fastening member at a location corresponding to the first fastening member , the second fastening member configured to be fastened to the first fastening member by a magnetic force, wherein the LED module is arranged to be moved in a fastening direction towards the bracket to fasten the first fastening member to the second fastening member , and wherein the second fastening member comprises a first magnet (121b1) configured to be linearly moved in a direction which is the same as the fastening direction or opposite to the fastening direction according to a polarity of the first fastening member . a bracket configured to support the LED module and including a second fastening member at a location corresponding to the first fastening member , the second fastening member configured to be fastened to the first fastening member by a magnetic force, wherein the LED module is arranged to be moved in a fastening direction towards the bracket to fasten the first fastening member to the second fastening member , and wherein the second fastening member comprises a first magnet (121b1) configured to be linearly moved in a direction which is the same as the fastening direction or opposite to the fastening direction according to a polarity of the first fastening member .
A hay net , the net comprising a mesh body forming a bag, having a securing member at a first position relative to the body of the net , a mouth formed at a second position relative to the body of the net , the first position being spaced from the second position , and a strap engaging the net adjacent the first position to secure the strap relative to the body of the net adjacent the first position , and engaging the net adjacent the second position to secure the strap relative to the body of the net adjacent the second position , wherein the length of the strap between the first and second positions is variable whilst maintaining engagement between the strap and the net adjacent both the first and second positions , characterised in that the length of the strap between the first and second positions is variable whilst maintaining the mouth in a closed formation
Support for a semiconductor structure or a surface or bulk acoustic wave type device comprising: - a base substrate ; - a first silicon dioxide insulating layer positioned on the base substrate and having a thickness greater than 20 nm; - a charge trapping layer having a resistivity higher than 1000 ohm.cm and a thickness greater than 5 microns positioned on the first insulating layer . - a base substrate ; - a first silicon dioxide insulating layer positioned on the base substrate and having a thickness greater than 20 nm; - a charge trapping layer having a resistivity higher than 1000 ohm.cm and a thickness greater than 5 microns positioned on the first insulating layer .
Apparatus for rearing insects in a high-bay warehouse, comprising a storage region having at least one high-bay rack and a storage logistics device, it being possible for the boxes to be stored in a stackable manner in the at least one high-bay rack and for the boxes to be transported and/or discharged within the storage region by means of the storage logistics device, insects being located in the boxes, the apparatus having a supply portal , it being possible for the boxes, which can be stored in a stackable manner in the high-bay rack , to be transported from the at least one high-bay rack to the supply portal by means of the storage logistics device and the state of the box contents within the boxes to be determined by means of the supply portal and the insects in the boxes to be supplied using the supply portal and/or the boxes to be discharged, characterized in that the supply portal is arranged on the at least one high-bay rack .
Microfluidic device for the processing of liquid samples , there being integrated therein at least one centrifuge unit having a centrifuge cup (10; 20; 30; 40) and at least one centripetal force-dependent valve function (12; 22; 35; 45), characterized in that the centrifuge cup is mounted rotatably between two layers of the device .
A method of wireless communication at a receiving device, comprising: receiving a first message from a first device; receiving a first re-transmission configuration indicator indicating a first quality-of-service, QoS, requirement configured to trigger a coding-based re-transmission of the first message; caching the first message at the receiving device in response to receiving the first re-transmission configuration indicator; receiving , from a re-transmitting device designated by one or more devices for performing at least one message re-transmission on behalf of the one or more devices, a coded message that encodes at least a first message and a second message, wherein the receiving device has failed to receive at least the second message from one of the one or more devices; receiving , from the re-transmitting device, a coding-based re-transmission indicator indicating that the coded message is configured as a coding-based re-transmission of two or more previously transmitted messages that are encoded together in the coded message, wherein receiving the coded message comprises receiving over a device-to-device, D2D, communication link in a vehicle-to-everything, V2X, communication; and recovering , in response to receiving the coding-based re-transmission indicator, at least the second message by decoding the coded message, wherein the recovering of at least the second message includes using at least the cached first message for decoding the coded message. receiving a first message from a first device; receiving a first re-transmission configuration indicator indicating a first quality-of-service, QoS, requirement configured to trigger a coding-based re-transmission of the first message; caching the first message at the receiving device in response to receiving the first re-transmission configuration indicator; receiving , from a re-transmitting device designated by one or more devices for performing at least one message re-transmission on behalf of the one or more devices, a coded message that encodes at least a first message and a second message, wherein the receiving device has failed to receive at least the second message from one of the one or more devices; receiving , from the re-transmitting device, a coding-based re-transmission indicator indicating that the coded message is configured as a coding-based re-transmission of two or more previously transmitted messages that are encoded together in the coded message, wherein receiving the coded message comprises receiving over a device-to-device, D2D, communication link in a vehicle-to-everything, V2X, communication; and recovering , in response to receiving the coding-based re-transmission indicator, at least the second message by decoding the coded message, wherein the recovering of at least the second message includes using at least the cached first message for decoding the coded message.
Scaled-up master for imprinting of micro- and nano-structures, the master being made-up from a plurality of tile-shaped master units wherein the plurality of tile-shaped master units making-up the master comprises tile-shaped master units having a non-hexagonal shape, wherein adjoining edges of neighbouring master units are parallel with each other and wherein the master units forming the master are arranged such that the splice lines between the master units only have junctions between master units where at most three corners of neighbouring master units are brought together.
A pneumatic tire mounted on a vehicle and a rim wheel assembled to the pneumatic tire , comprising: a tread in contact with a road surface; and a belt layer provided inside the tire radial direction of the tread , wherein the outer diameter of the pneumatic tire is 350 mm or more and 600 mm or less, wherein as RW is defined by a rim width of the rim wheel assembled to the pneumatic tire and SW is defined by a tire width of the pneumatic tire , the relation of 0.78 ≤ RW/SW ≤ 0.99 is satisfied, wherein at least two circumferential main grooves extending to a tire circumferential direction are formed on the tread , and the circumferential main grooves are formed closer to a tire equatorial line than an outer end in a tire width direction of the belt layer , wherein OD is defined by an outer diameter of the pneumatic tire and RD is defined by a rim diameter of the pneumatic tire , the relation of 0.56 ≤ RD/OD ≤ 0.75 is satisfied, the RD is 12 inches (305 mm) or more and 17.5 inches (445 mm) or less, characterized in that the tire has an air volume of 20,000 cm 3 or more and 80,000 cm 3 or less, and in that the set internal pressure of the pneumatic tire is 400 to 1,100 kPa. a tread in contact with a road surface; and a belt layer provided inside the tire radial direction of the tread , wherein the outer diameter of the pneumatic tire is 350 mm or more and 600 mm or less, wherein as RW is defined by a rim width of the rim wheel assembled to the pneumatic tire and SW is defined by a tire width of the pneumatic tire , the relation of 0.78 ≤ RW/SW ≤ 0.99 is satisfied, wherein at least two circumferential main grooves extending to a tire circumferential direction are formed on the tread , and the circumferential main grooves are formed closer to a tire equatorial line than an outer end in a tire width direction of the belt layer , wherein OD is defined by an outer diameter of the pneumatic tire and RD is defined by a rim diameter of the pneumatic tire , the relation of 0.56 ≤ RD/OD ≤ 0.75 is satisfied, the RD is 12 inches (305 mm) or more and 17.5 inches (445 mm) or less, characterized in that the tire has an air volume of 20,000 cm 3 or more and 80,000 cm 3 or less, and in that the set internal pressure of the pneumatic tire is 400 to 1,100 kPa.
Pushing device for displacing a predetermined number (N) of objects (C) comprising a first end (C1), a second end (C2) and a protruding edge (B) arranged in proximity of said first end (C1) and arranged in an alternate manner in one or more single file rows (F1, F2, F3) along a first predetermined displacement direction (D1), the pushing device comprising: at least a first guide for the sliding of said objects (C) along said first predetermined displacement direction (D1), wherein said first guide comprises four housings , wherein a first housing and a second housing are arranged side by side on the same first level with respect to the bottom of said guide so as to house the protruding edge (B) of the objects oriented according to a first orientation and wherein a third housing and a fourth housing are arranged side by side on the same second lever with respect to the bottom of said guide so as to house the protruding edge (B) of the objects oriented according to second orientation; pushing means translatable along a first translation direction (T1) so as to be approached to said objects (C) when said objects (C) are housed in said first guide so as to touch at least one of said objects (C) and so as to further be distanced from said objects (C), said pushing means being further translatable along said first predetermined displacement direction (D1) so as to push said objects (C) along said first predetermined displacement direction (D1). at least a first guide for the sliding of said objects (C) along said first predetermined displacement direction (D1), wherein said first guide comprises four housings , wherein a first housing and a second housing are arranged side by side on the same first level with respect to the bottom of said guide so as to house the protruding edge (B) of the objects oriented according to a first orientation and wherein a third housing and a fourth housing are arranged side by side on the same second lever with respect to the bottom of said guide so as to house the protruding edge (B) of the objects oriented according to second orientation; pushing means translatable along a first translation direction (T1) so as to be approached to said objects (C) when said objects (C) are housed in said first guide so as to touch at least one of said objects (C) and so as to further be distanced from said objects (C), said pushing means being further translatable along said first predetermined displacement direction (D1) so as to push said objects (C) along said first predetermined displacement direction (D1).
Drive system , comprising: - an electric motor with a shaft , - an electronic assembly for functionally controlling the electric motor , and - a fan driven by means of the shaft , - wherein the electronic assembly is coupled with the fan for conjoint rotation and thermally coupled with it, - wherein the fan has a fan impeller , which is coupled with the shaft for conjoint rotation, wherein the electronic assembly is coupled with the fan impeller for conjoint rotation and thermally coupled with it, characterized in that - the fan impeller forms a housing of the electronic assembly , wherein the electronic assembly is screwed to the blade surface of the fan impeller , and wherein the electronic assembly has at least one inverter for generating actuation signals for at least one rotor winding of the electric motor . - an electric motor with a shaft , - an electronic assembly for functionally controlling the electric motor , and - a fan driven by means of the shaft , - wherein the electronic assembly is coupled with the fan for conjoint rotation and thermally coupled with it, - wherein the fan has a fan impeller , which is coupled with the shaft for conjoint rotation, wherein the electronic assembly is coupled with the fan impeller for conjoint rotation and thermally coupled with it, - wherein the electronic assembly is coupled with the fan for conjoint rotation and thermally coupled with it, - wherein the fan has a fan impeller , which is coupled with the shaft for conjoint rotation, wherein the electronic assembly is coupled with the fan impeller for conjoint rotation and thermally coupled with it, - the fan impeller forms a housing of the electronic assembly , wherein the electronic assembly is screwed to the blade surface of the fan impeller , and wherein the electronic assembly has at least one inverter for generating actuation signals for at least one rotor winding of the electric motor .
A method of assembly of a fluid circulating assembly having a rotation axis, said method comprising: providing a fan impeller including an inlet ring and a rear plate that together define a central fan chamber; coupling an electrical machine to the rear plate such that the electrical machine is located entirely outside the central fan chamber, the electrical machine including a rotor assembly , a stator assembly , and a housing , the housing including an annular center section and at least two extension portions extending radially outward from the annular center section, wherein the rotor assembly is coupled to the rear plate , wherein coupling an electrical machine to the rear plate comprises coupling a hub drive directly to the rear plate and to the rotor assembly to facilitate rotation of said fan impeller , wherein the hub drive is ring-shaped and includes a plurality of fingers extending radially inward from an inner annular surface of the hub drive. providing a fan impeller including an inlet ring and a rear plate that together define a central fan chamber; coupling an electrical machine to the rear plate such that the electrical machine is located entirely outside the central fan chamber, the electrical machine including a rotor assembly , a stator assembly , and a housing , the housing including an annular center section and at least two extension portions extending radially outward from the annular center section, wherein the rotor assembly is coupled to the rear plate , wherein coupling an electrical machine to the rear plate comprises coupling a hub drive directly to the rear plate and to the rotor assembly to facilitate rotation of said fan impeller , wherein the hub drive is ring-shaped and includes a plurality of fingers extending radially inward from an inner annular surface of the hub drive.
An array substrate comprising a plurality of gate lines; a plurality of data lines that intersect the plurality of gate lines; a plurality of pixel units defined by the plurality of gate lines and the plurality of data lines which intersect each other, each pixel unit comprising a thin film transistor, a gate insulating layer , a passivation layer arranged on one side of the gate insulating layer , a pixel electrode and a common electrode , wherein a source and a drain of the thin film transistor are arranged between the passivation layer and the gate insulating layer , the common electrode is arranged on the other side of the gate insulating layer opposite to the passivation layer , the pixel electrode is arranged on the passivation layer ; and a shield electrode arranged in the same layer as the pixel electrode and located above the data lines ; characterized by a pixel metal electrode corresponding to the pixel electrode , wherein an insulating layer is present between the pixel electrode and the pixel metal electrode, and the pixel electrode and the pixel metal electrode are mutually connected via a via hole in the insulating layer.
A method for detecting and mapping data points using a handheld device, the method comprising the acts of: determining position of the handheld device; scanning one or more objects, wherein scanning includes detecting data points by an integrated radar sensor of the handheld device and capturing image data of the one or more objects by an image sensor of the handheld device; generating a three-dimensional spatial model of the one or more objects based on the detected data points and the image data, and wherein the three-dimensional spatial model is generated relative to the position of the handheld device; wherein generating the three-dimensional spatial model includes correlating data points to one or more portions of the image data; and assigning geospatial data to one or more portions of the image data; storing , by the device, image data with data points; and further comprising tracking the one or more objects based on the data points and the three-dimensional spatial model; wherein the integrated radar sensor is a solid-state or chip-based radar sensor configured for beam steering, or vertical and horizontal scanning using servo controls configured to orient the integrated radar sensor, to generate a three-dimensional point cloud; and wherein data points captured from different positions of the handheld device are correlated based on measurements from multiple reference points and geospatial data for each point. determining position of the handheld device; scanning one or more objects, wherein scanning includes detecting data points by an integrated radar sensor of the handheld device and capturing image data of the one or more objects by an image sensor of the handheld device; generating a three-dimensional spatial model of the one or more objects based on the detected data points and the image data, and wherein the three-dimensional spatial model is generated relative to the position of the handheld device; wherein generating the three-dimensional spatial model includes correlating data points to one or more portions of the image data; and assigning geospatial data to one or more portions of the image data; storing , by the device, image data with data points; and further comprising tracking the one or more objects based on the data points and the three-dimensional spatial model; wherein the integrated radar sensor is a solid-state or chip-based radar sensor configured for beam steering, or vertical and horizontal scanning using servo controls configured to orient the integrated radar sensor, to generate a three-dimensional point cloud; and wherein data points captured from different positions of the handheld device are correlated based on measurements from multiple reference points and geospatial data for each point.
Full-surface or partially backlit manufacturer's emblem , which, irrespective of the viewing angle, can be used preferably in the interior as well as exterior in the automotive sector, which has a transparent lens , which is combined together with a carrier part subsequently mounted on the rear side and a light source to form a component assembly, wherein in a recess on the rear side of the lens a chrome-optic lacquer or a coating is applied, which is represented in a transilluminable manner and which imitates the metal optical decorative element and wherein on the rear side of the lens a coated film is inserted or back-injected, which includes a recess following the contour of the decorative element and wherein the coating of said film defines translucent and non-translucent areas.