mhurhangee/patent-ind-claim-en huggingface dataset:
Method for generating agitation in a microdrop of fluid the volume of which is preferably greater than a few tens of nanolitres, implementing an actuation device using sound waves, said actuation device comprising a support on and from which said microdrop of fluid is deposited and removed, and a resonator suitable for converting an electrical sine-wave signal applied at its terminals into sound waves, said method being characterized in that the resonator of the actuation device implemented is of the high overtone bulk acoustic resonator (HBAR) type , the HBAR having a quality factor Q of at least 100 in air and containing said support , said support being substantially flat and coated with a layer of dielectric material , in that said HBAR is associated with a modulable electronic device suitable for generating high-frequency waves, and in that it contains the following steps: - depositing a microdrop of fluid on said support , - generating an electrical sine-wave signal (S) by controlling the modulable electronic device , said generated electrical sine-wave signal (S) having a frequency selected using the modulable electronic device, said frequency being comprised between 100 MHz and 4 GHz, - converting the electrical sine-wave signal (S) having said selected frequency into high-frequency sound waves (OA) using said HBAR , the high-frequency sound waves (OA) having a natural resonance generating a given agitation in the microdrop of fluid . the resonator of the actuation device implemented is of the high overtone bulk acoustic resonator (HBAR) type , the HBAR having a quality factor Q of at least 100 in air and containing said support , said support being substantially flat and coated with a layer of dielectric material , in that said HBAR is associated with a modulable electronic device suitable for generating high-frequency waves, and in that it contains the following steps: - depositing a microdrop of fluid on said support , - generating an electrical sine-wave signal (S) by controlling the modulable electronic device , said generated electrical sine-wave signal (S) having a frequency selected using the modulable electronic device, said frequency being comprised between 100 MHz and 4 GHz, - converting the electrical sine-wave signal (S) having said selected frequency into high-frequency sound waves (OA) using said HBAR , the high-frequency sound waves (OA) having a natural resonance generating a given agitation in the microdrop of fluid . - depositing a microdrop of fluid on said support , - generating an electrical sine-wave signal (S) by controlling the modulable electronic device , said generated electrical sine-wave signal (S) having a frequency selected using the modulable electronic device, said frequency being comprised between 100 MHz and 4 GHz, - converting the electrical sine-wave signal (S) having said selected frequency into high-frequency sound waves (OA) using said HBAR , the high-frequency sound waves (OA) having a natural resonance generating a given agitation in the microdrop of fluid .
A pretreatment method for quantitative and qualitative analysis of a polyimide film, comprising the steps of: a) hydrolyzing a polyimide film prepared by using at least one diamine and acid dianhydride with a strong base; b) adding DMAc (dimethylacetamide) solvent to the solution containing the hydrolyzed polyimide film and performing ultrasonication of the solution to dissolve it to obtain an extraction solution containing all of the diamine and acid dianhydride salt formed; and c) adding H 2 O to the ultrasonicated solution. a) hydrolyzing a polyimide film prepared by using at least one diamine and acid dianhydride with a strong base; b) adding DMAc (dimethylacetamide) solvent to the solution containing the hydrolyzed polyimide film and performing ultrasonication of the solution to dissolve it to obtain an extraction solution containing all of the diamine and acid dianhydride salt formed; and c) adding H 2 O to the ultrasonicated solution.
A display apparatus comprising: a display module ; a main board configured to drive the display module ; and a cover coupled to a rear side of the display module such as to cover the display module and the main board , characterized in that the cover comprises: a cover sheet formed of an extruded plastic material or an extruded composite material; and a cover frame attached to a front surface of the cover sheet and configured to couple the cover sheet to the display module, and wherein the cover sheet is more flexible than the cover frame and the cover frame has a shape corresponding to only a partial area of the cover sheet . a display module ; a main board configured to drive the display module ; and a cover coupled to a rear side of the display module such as to cover the display module and the main board , characterized in that the cover comprises: a cover sheet formed of an extruded plastic material or an extruded composite material; and a cover frame attached to a front surface of the cover sheet and configured to couple the cover sheet to the display module, and a cover sheet formed of an extruded plastic material or an extruded composite material; and a cover frame attached to a front surface of the cover sheet and configured to couple the cover sheet to the display module, and wherein the cover sheet is more flexible than the cover frame and the cover frame has a shape corresponding to only a partial area of the cover sheet .
A method performed by a wireless device configured to operate in a wireless communication system, the method comprising: receiving, from a network, information on a reserved resource in symbol level, which is dynamically indicated by a bitmap having a size of a maximum scheduling unit with which the wireless device can be scheduled; applying rate matching on a physical downlink shared channel, PDSCH, in a slot to which the PDSCH is scheduled, by allocating resources at each symbol except the reserved resource; and receiving, from the network, data on the PDSCH. receiving, from a network, information on a reserved resource in symbol level, which is dynamically indicated by a bitmap having a size of a maximum scheduling unit with which the wireless device can be scheduled; applying rate matching on a physical downlink shared channel, PDSCH, in a slot to which the PDSCH is scheduled, by allocating resources at each symbol except the reserved resource; and receiving, from the network, data on the PDSCH.
An electronic device, comprising a flexible board and a circuit board , wherein the flexible board is provided with a positioning hole and a second pin electrically connected to a circuit on the flexible board , the circuit board comprising a board body and a positioning block disposed on the board body, wherein the positioning block is a metal block; the positioning block is electrically connected to a circuit on the board body; wherein a soldering pad is disposed on a surface of the board body, and the positioning block is soldered to the soldering pad, wherein there are a plurality of the positioning blocks, and the plurality of the positioning blocks are arranged at intervals, wherein a first pin is disposed on the board body, the first pin is electrically connected to the circuit on the board body, and the first pin is configured to be electrically connected to a second pin on the flexible board to connect the circuit on the circuit board to the circuit on the flexible board , and the plurality of the positioning blocks are distributed on a circumferential side of the first pin; and the positioning hole is a circular hole, the positioning block is cylindrical, wherein the positioning block is penetrated into the positioning hole and the distance between the positioning block and the positioning hole is 0.05 mm to 0.1 mm and the positioning block forms an external interface, so that the circuit board can be tested and debugged by using the positioning block . wherein the positioning block is a metal block; the positioning block is electrically connected to a circuit on the board body; wherein a soldering pad is disposed on a surface of the board body, and the positioning block is soldered to the soldering pad, wherein there are a plurality of the positioning blocks, and the plurality of the positioning blocks are arranged at intervals, wherein a first pin is disposed on the board body, the first pin is electrically connected to the circuit on the board body, and the first pin is configured to be electrically connected to a second pin on the flexible board to connect the circuit on the circuit board to the circuit on the flexible board , and the plurality of the positioning blocks are distributed on a circumferential side of the first pin; and the positioning hole is a circular hole, the positioning block is cylindrical, wherein the positioning block is penetrated into the positioning hole and the distance between the positioning block and the positioning hole is 0.05 mm to 0.1 mm and the positioning block forms an external interface, so that the circuit board can be tested and debugged by using the positioning block .
A console assembly for a vehicle comprising: a first member , a second member , the first member and/or the second member are slidable with respect to each other, wherein one or more bendable cover is attached to the first member or to the second member , and wherein the one or more bendable cover is arranged to at least partially close one or more gap created between a portion (a, a') of the first member and a portion (b, b') of the second member , wherein a first end of the bendable cover is fixedly connected to the first member and a second end is adapted to bend into an inner surface of the second member such that at least a portion of the bendable cover is not visible when viewed from outside, wherein the bendable cover is oriented substantially horizontal when closing the gap between the portion (a, a') of the first member and the portion (b, b') of the second member , and the bendable cover is oriented substantially parallel to the respective inner surface of the first member or the second member when the bendable cover bends into the first member or the second member , characterized in that the bendable cover is made up of a substantially rigid material which bends upon application of an external force and regains its original shape after removal of the external force. a first member , a second member , the first member and/or the second member are slidable with respect to each other, wherein one or more bendable cover is attached to the first member or to the second member , and wherein the one or more bendable cover is arranged to at least partially close one or more gap created between a portion (a, a') of the first member and a portion (b, b') of the second member , wherein a first end of the bendable cover is fixedly connected to the first member and a second end is adapted to bend into an inner surface of the second member such that at least a portion of the bendable cover is not visible when viewed from outside, wherein the bendable cover is oriented substantially horizontal when closing the gap between the portion (a, a') of the first member and the portion (b, b') of the second member , and the bendable cover is oriented substantially parallel to the respective inner surface of the first member or the second member when the bendable cover bends into the first member or the second member , characterized in that the bendable cover is made up of a substantially rigid material which bends upon application of an external force and regains its original shape after removal of the external force.
A pressure control device , the pressure control device comprising a first dome pressure reducer , the first dome pressure reducer comprising a first control gas port , a first gas inlet and a first gas outlet , the first gas outlet being connected to a first pressure sensing device , characterized in that the pressure control device has a first piston accumulator , the first piston accumulator having a first gas side and a first fluid side , the first gas side of the first piston accumulator being connected in a gas-conducting manner to the first control gas opening of the first dome pressure reducer .
Method for producing extruded panels as wall or floor coverings, comprising the following steps: - providing lignocellulosic fibers; - providing a polymeric material of a thermoplastic material as a granule of an extrudable thermoplastic material; - comminuting a recycled plastic composite material from a thermosetting material, wherein the recycled plastic composite material is a fiber-reinforced plastic material comprising glass fibers, carbon fibers, asbestos fibers, and/or polymer fibers; - preparing a mixture of the lignocellulosic fibers, the polymeric material with a thermoplastic material, the comminuted recycled plastic composite material, and optionally other additives; and - extruding the mixture and finishing the panels. - providing lignocellulosic fibers; - providing a polymeric material of a thermoplastic material as a granule of an extrudable thermoplastic material; - comminuting a recycled plastic composite material from a thermosetting material, wherein the recycled plastic composite material is a fiber-reinforced plastic material comprising glass fibers, carbon fibers, asbestos fibers, and/or polymer fibers; - preparing a mixture of the lignocellulosic fibers, the polymeric material with a thermoplastic material, the comminuted recycled plastic composite material, and optionally other additives; and - extruding the mixture and finishing the panels.
Device for checking the position of a mechanical element in translational or rotational motion which is configured to perform a predetermined stroke, the device comprising a magnetic component coupleable with the mechanical element whose position is to be determined and a stationary magnetic sensor , said device being characterized in that the magnetic component comprises a bar of non-magnetic material, provided with a plurality of holes and in said plurality of holes a plurality of magnetic cylinders is embedded, wherein one cylinder is embedded in each hole , and wherein the individual magnetic cylinders arranged along the non-magnetic bar follow a helical pattern extending between two end magnetic cylinders.
An apparatus for spreading particulate material, the apparatus comprising: a hopper for holding particulate material: a rotatable disc for broadcasting the particulate material to a ground surface; a conveyor for conveying the particulate material in a particulate material path from the hopper to the rotatable disc; and, a plurality of sluices situated in the particulate material path between the hopper and the rotatable disc , each sluice receiving a portion of the particulate material and delivering the portion of particulate material to a radial and/or angular position on the rotatable disc, at least one of the sluices independently moveable to adjust the radial and/or angular position on the rotatable disc to which the portion of particulate material from the at least one independently moveable sluice is delivered, each sluice comprising substantially vertically oriented side walls , an open first end for receiving the particulate material from the conveyor , an inclined floor inclined downwardly from the first end to an open second end of the sluice so that the particulate material in the sluice flows freely out the open second end, characterized in that the sluices are individual structures that are longitudinally positionable independently of each other. a rotatable disc for broadcasting the particulate material to a ground surface; a conveyor for conveying the particulate material in a particulate material path from the hopper to the rotatable disc; and, a plurality of sluices situated in the particulate material path between the hopper and the rotatable disc , each sluice receiving a portion of the particulate material and delivering the portion of particulate material to a radial and/or angular position on the rotatable disc, at least one of the sluices independently moveable to adjust the radial and/or angular position on the rotatable disc to which the portion of particulate material from the at least one independently moveable sluice is delivered, each sluice comprising substantially vertically oriented side walls , an open first end for receiving the particulate material from the conveyor , an inclined floor inclined downwardly from the first end to an open second end of the sluice so that the particulate material in the sluice flows freely out the open second end, characterized in that the sluices are individual structures that are longitudinally positionable independently of each other.
Feed device for small parts provided as bulk goods, with a step conveyor designed to transfer small parts received in a discharge region of a first feed unit belonging to the feed device and designed as a vibratory conveyer to a second feed unit belonging to the feed device in a feed region situated at a higher level than said discharge region , wherein the step conveyor is designed as a swivel step conveyor , which comprises a swivel unit , which is capable of pivoting to and fro about a swivel axis while performing a swivelling movement and has a transfer chute for the small parts to be transferred, which is mounted at a swivel arm assembly projecting transversely from the swivel axis at a distance from the swivel axis and moving along a curved path in the swivelling movement , wherein the discharge region of the first feed unit is assigned a movable blocking wall , the movement of which is coordinated with the swivelling movement of the associated swivel unit in such a way that is blocks the first feed unit to prevent a release of small parts if the transfer chute leaves or has left the discharge region , wherein the second feed unit has a sorting unit for sorting the small parts , characterised in that the sorting unit contains a return device for returning sorted-out small parts into the first feed unit .
An endoscopic device comprising: a CMOS image sensor having an area sufficient to be located near a tip of a distal end of the endoscopic device ; a plurality of on-chip registers for configuring the image sensor operation; and a plurality of bi-directional pads having an output state and an input state for sending and receiving data to and from the image sensor ; wherein the bi-directional pads automatically switch between the output state and the input state; wherein the endoscopic device further comprises a frame timing structure having a period that is divided into three defined states: a rolling-readout state during which image data is output through the bi-directional pads , a service-line state during which non-image data is output through the bi-directional pads , and a configuration-state during which the instruction data is received by the image sensor through the bi-directional pads ; wherein the bi-directional pads are in the output state during the frame rolling-readout state and the service-line state and wherein image data is output from the image sensor during the rolling-readout state and non-image data is output from the image sensor during the service-line state; wherein the bi-directional pads are in the input state during the configuration-state and during which they receive control commands for the operation of the image sensor . a CMOS image sensor having an area sufficient to be located near a tip of a distal end of the endoscopic device ; a plurality of on-chip registers for configuring the image sensor operation; and a plurality of bi-directional pads having an output state and an input state for sending and receiving data to and from the image sensor ; wherein the bi-directional pads automatically switch between the output state and the input state; wherein the endoscopic device further comprises a frame timing structure having a period that is divided into three defined states: a rolling-readout state during which image data is output through the bi-directional pads , a service-line state during which non-image data is output through the bi-directional pads , and a configuration-state during which the instruction data is received by the image sensor through the bi-directional pads ; a rolling-readout state during which image data is output through the bi-directional pads , a service-line state during which non-image data is output through the bi-directional pads , and a configuration-state during which the instruction data is received by the image sensor through the bi-directional pads ; wherein the bi-directional pads are in the output state during the frame rolling-readout state and the service-line state and wherein image data is output from the image sensor during the rolling-readout state and non-image data is output from the image sensor during the service-line state; wherein the bi-directional pads are in the input state during the configuration-state and during which they receive control commands for the operation of the image sensor .
A method of image processing implemented on at least one machine, each of which has at least one processor and storage device for image processing, the method comprising: acquiring a three-dimensional image data set representative of a region including at least one airway, the data set comprising a plurality of voxels; identifying a first-level seed within the region; identifying a first-level airway within the region based on the first-level seed; defining a plurality of second-level seeds based on the first-level airway; characterised in that the method further comprises: identifying a second-level airway within the region by performing growing based on the plurality of second-level seeds using an energy-based 3D reconstruction algorithm; and fusing the first-level airway and the second-level airway to form an airway tree, wherein the growing using the energy-based 3D reconstruction algorithm is performed based on a first growing potential energy at a first state of an adjacent voxel of each second-level seed and a second growing potential energy at a second state of the adjacent voxel of the each second-level seed. acquiring a three-dimensional image data set representative of a region including at least one airway, the data set comprising a plurality of voxels; identifying a first-level seed within the region; identifying a first-level airway within the region based on the first-level seed; defining a plurality of second-level seeds based on the first-level airway; characterised in that the method further comprises: identifying a second-level airway within the region by performing growing based on the plurality of second-level seeds using an energy-based 3D reconstruction algorithm; and fusing the first-level airway and the second-level airway to form an airway tree, wherein the growing using the energy-based 3D reconstruction algorithm is performed based on a first growing potential energy at a first state of an adjacent voxel of each second-level seed and a second growing potential energy at a second state of the adjacent voxel of the each second-level seed. identifying a second-level airway within the region by performing growing based on the plurality of second-level seeds using an energy-based 3D reconstruction algorithm; and fusing the first-level airway and the second-level airway to form an airway tree, wherein the growing using the energy-based 3D reconstruction algorithm is performed based on a first growing potential energy at a first state of an adjacent voxel of each second-level seed and a second growing potential energy at a second state of the adjacent voxel of the each second-level seed.