mhurhangee/patent-ind-claim-en huggingface dataset:
A board inspection apparatus system comprising: a first apparatus configured to acquire first three-dimensional information of a solder paste formed on a board, and configured to inspect whether the solder paste is formed good or bad by a predetermined first tolerance based on the first three-dimensional information, wherein the first tolerance include at least one of a volume scope of the solder paste, a position scope of the solder paste and a bridge shape scope; a second apparatus configured to acquire second three-dimensional information for inspecting whether an electronic component that is mounted on the board having the solder paste formed thereon is mounted good or bad, and configured to inspect whether the electronic component is mounted good or bad by a predetermined second tolerance based on the second three-dimensional information, wherein the second tolerance include at least one of an offset scope of a mounted position of the electronic component, a shape scope of solder joint, and a curvature scope according to a position of the solder joint; a database configured to store the first three-dimensional information of the first apparatus and the second three-dimensional information of the second apparatus; and an alarm-generating apparatus configured to receive the first three-dimensional information and the second three-dimensional information from the database, and configured to generate an alarm message to modify the first tolerance in case that the second three-dimensional information is beyond the second tolerance. a first apparatus configured to acquire first three-dimensional information of a solder paste formed on a board, and configured to inspect whether the solder paste is formed good or bad by a predetermined first tolerance based on the first three-dimensional information, wherein the first tolerance include at least one of a volume scope of the solder paste, a position scope of the solder paste and a bridge shape scope; a second apparatus configured to acquire second three-dimensional information for inspecting whether an electronic component that is mounted on the board having the solder paste formed thereon is mounted good or bad, and configured to inspect whether the electronic component is mounted good or bad by a predetermined second tolerance based on the second three-dimensional information, wherein the second tolerance include at least one of an offset scope of a mounted position of the electronic component, a shape scope of solder joint, and a curvature scope according to a position of the solder joint; a database configured to store the first three-dimensional information of the first apparatus and the second three-dimensional information of the second apparatus; and an alarm-generating apparatus configured to receive the first three-dimensional information and the second three-dimensional information from the database, and configured to generate an alarm message to modify the first tolerance in case that the second three-dimensional information is beyond the second tolerance.
A valve assembly comprising: a vacuum valve including an electrically grounded surface ; an electrode adjacent to the electrically grounded surface of the vacuum valve; a barrier dielectric , at least a portion of which is located between the electrode and the electrically grounded surface; and a dielectric barrier discharge structure formed from the electrically grounded surface, the electrode, and the barrier dielectric, wherein the dielectric barrier discharge structure is adapted to generate a plasma on the electrically grounded surface to process at least a portion of the vacuum valve. a vacuum valve including an electrically grounded surface ; an electrode adjacent to the electrically grounded surface of the vacuum valve; a barrier dielectric , at least a portion of which is located between the electrode and the electrically grounded surface; and a dielectric barrier discharge structure formed from the electrically grounded surface, the electrode, and the barrier dielectric, wherein the dielectric barrier discharge structure is adapted to generate a plasma on the electrically grounded surface to process at least a portion of the vacuum valve.
Smoothing apparatus comprising a body including a handle and a steam emission head connected to the handle , the steam emission head comprising a treatment face intended to vertically face a garment to be smoothed, the treatment face comprising at least one steam outlet and a hot surface intended to come into contact with the garment, the apparatus further comprising at least one accessory intended to be removably mounted on the head and comprising a treatment surface intended to come into contact with the garment, the accessory being mountable in at least two positions on the head and comprising a first treatment surface which is exposed on the treatment face when the accessory is mounted in one of the two positions, and comprising a second treatment surface which is exposed on the treatment face when the accessory is mounted in the other of the two positions, characterised in that the first treatment surface and the second treatment surface have different surface conditions and/or materials.
A communication apparatus comprising: a receiver configured to receive a control signal from a base station apparatus , the control signal mapped to one of a plurality of search spaces configured in an Enhanced Physical Downlink Control Channel,EPDCCH, and the EPDCCH defined in a data region of a subframe; a search space configuration section configured to identify the one search space on which the control signal is mapped among the plurality of search spaces, each search space including a plurality of mapping candidates for mapping the control signal, the EPDCCH including a resource block,RB, pair, the RB pair divided into a plurality of control channel elements,CCEs, and each of the plurality of mapping candidates having a same number of CCEs as an aggregation level, wherein when the aggregation level is one, each of the plurality of search spaces includes a first mapping candidate which is a first CCE having a first number of resource elements, REs, and a second mapping candidate which is a CCE having a second number of REs, the second number being different from the first number; and a decoder configured to decode the identified search space and to acquire the control signal that is mapped to one of the plurality of mapping candidates included in the identified search space. a receiver configured to receive a control signal from a base station apparatus , the control signal mapped to one of a plurality of search spaces configured in an Enhanced Physical Downlink Control Channel,EPDCCH, and the EPDCCH defined in a data region of a subframe; a search space configuration section configured to identify the one search space on which the control signal is mapped among the plurality of search spaces, each search space including a plurality of mapping candidates for mapping the control signal, the EPDCCH including a resource block,RB, pair, the RB pair divided into a plurality of control channel elements,CCEs, and each of the plurality of mapping candidates having a same number of CCEs as an aggregation level, wherein when the aggregation level is one, each of the plurality of search spaces includes a first mapping candidate which is a first CCE having a first number of resource elements, REs, and a second mapping candidate which is a CCE having a second number of REs, the second number being different from the first number; and a decoder configured to decode the identified search space and to acquire the control signal that is mapped to one of the plurality of mapping candidates included in the identified search space.
An integrated circuit structure comprising: a pad region comprising a plurality of signal pads arranged along a target direction; and a circuit region arranged on one side of the pad region , wherein the circuit region comprises a plurality of input/output circuit modules which are arranged along the target direction and correspondingly connected to the plurality of signal pads, and each of the plurality of input/output circuit modules is configured to perform a sampling operation of an input signal, write a sampling result into a storage array, and read data stored in the storage array, wherein a size of the circuit region along the target direction is less than that of the pad region along the target direction, wherein a width-to-depth ratio of a region occupied by each of the plurality of input/output circuit modules along the target direction is less than a ratio threshold, wherein for each of the plurality of input/output circuit modules, a length of the input/output circuit module along the target direction is less than a length of the input/output circuit module along a direction perpendicular to the target direction. a pad region comprising a plurality of signal pads arranged along a target direction; and a circuit region arranged on one side of the pad region , wherein the circuit region comprises a plurality of input/output circuit modules which are arranged along the target direction and correspondingly connected to the plurality of signal pads, and each of the plurality of input/output circuit modules is configured to perform a sampling operation of an input signal, write a sampling result into a storage array, and read data stored in the storage array, wherein a size of the circuit region along the target direction is less than that of the pad region along the target direction, wherein a width-to-depth ratio of a region occupied by each of the plurality of input/output circuit modules along the target direction is less than a ratio threshold, wherein for each of the plurality of input/output circuit modules, a length of the input/output circuit module along the target direction is less than a length of the input/output circuit module along a direction perpendicular to the target direction.
Tyre moulding element (R) for use in a tyre mould, the tyre moulding element (R) having a construction made up of two-dimensional layers and having at least one surface with a structure comprising a multiplicity of structural elements , characterized in that the structure masks the step effects caused by the construction made up of two-dimensional layers .
An inductor framework , comprising a main winding part and at least two conductive welding components ; the main winding part is configured to fix a winding and has a connection surface facing downward, the conductive welding components are under the connection surface and at least partly cover the connection surface , and the conductive welding components are in fixed connection with the main winding part and the at least two conductive welding components are insulated from each other; and a side surface of the conductive welding components away from the connection surface is a welding bonding surface , and the conductive welding components have a wire accommodation region , and the wire accommodation region is configured that a wire of the winding do not extend beyond the welding bonding surface in a case where the wire of the winding is accommodated in the wire accommodation region , characterised in that the main winding part is made of a nonmagnetic material. the main winding part is configured to fix a winding and has a connection surface facing downward, the conductive welding components are under the connection surface and at least partly cover the connection surface , and the conductive welding components are in fixed connection with the main winding part and the at least two conductive welding components are insulated from each other; and a side surface of the conductive welding components away from the connection surface is a welding bonding surface , and the conductive welding components have a wire accommodation region , and the wire accommodation region is configured that a wire of the winding do not extend beyond the welding bonding surface in a case where the wire of the winding is accommodated in the wire accommodation region , characterised in that the main winding part is made of a nonmagnetic material.
A method of operating a gas turbine engine system in which mechanical power is generated by combustion or oxidation of a fuel in an engine , the method comprising: providing a first fuel from a first fuel store to an engine at a first mass flow rate; providing a second fuel from a second fuel store to the engine at a second mass flow rate, and wherein the first mass flow rate and second mass flow rate contribute to a total mass flow rate of fuel to the engine ; characterised in that the method comprises, during a period of acceleration of the engine , increasing the relative fraction of the total mass flow rate of fuel represented by the second mass flow rate in order to control a surge margin of one or more compressors of the engine, wherein the second fuel is selected to have a higher specific energy than the first fuel and to release a greater mass of water per unit mass of fuel than the first fuel. providing a first fuel from a first fuel store to an engine at a first mass flow rate; providing a second fuel from a second fuel store to the engine at a second mass flow rate, and wherein the first mass flow rate and second mass flow rate contribute to a total mass flow rate of fuel to the engine ; characterised in that the method comprises, during a period of acceleration of the engine , increasing the relative fraction of the total mass flow rate of fuel represented by the second mass flow rate in order to control a surge margin of one or more compressors of the engine, wherein the second fuel is selected to have a higher specific energy than the first fuel and to release a greater mass of water per unit mass of fuel than the first fuel.
A storage controller , wherein the storage controller is coupled to a memory , the storage controller comprises a data migration circuit and a data operation determining circuit, and the memory comprises a first storage area and a second storage area, wherein the data migration circuit is configured to generate a migration signal, wherein the migration signal is used to migrate data in the first storage area to the second storage area; in a data migration process in which the data migration circuit migrates all the data in the first storage area to the second storage area, the data operation determining circuit is configured to receive and monitor a data operation signal input to the memory ; wherein the data operation determining circuit comprises an operation type determining circuit, wherein the operation type determining circuit is further configured to: when determining that the data operation signal is the data modify signal for the first storage area, trigger the data migration circuit to record the data storage address to which the data operation signal points; and the data migration circuit is further configured to: after all the data in the first storage area is migrated to the second storage area, remigrate, from the first storage area to the second storage area, the data at the data storage address to which the data operation signal points. the data migration circuit is configured to generate a migration signal, wherein the migration signal is used to migrate data in the first storage area to the second storage area; in a data migration process in which the data migration circuit migrates all the data in the first storage area to the second storage area, the data operation determining circuit is configured to receive and monitor a data operation signal input to the memory ; wherein the data operation determining circuit comprises an operation type determining circuit, wherein the operation type determining circuit is further configured to: when determining that the data operation signal is the data modify signal for the first storage area, trigger the data migration circuit to record the data storage address to which the data operation signal points; and the data migration circuit is further configured to: after all the data in the first storage area is migrated to the second storage area, remigrate, from the first storage area to the second storage area, the data at the data storage address to which the data operation signal points. when determining that the data operation signal is the data modify signal for the first storage area, trigger the data migration circuit to record the data storage address to which the data operation signal points; and the data migration circuit is further configured to: after all the data in the first storage area is migrated to the second storage area, remigrate, from the first storage area to the second storage area, the data at the data storage address to which the data operation signal points.
A textile machine , in particular a spinning machine or winder, comprising a plurality of adjacently arranged workstations , which are combined to form multiple sections and each include multiple communication-capable units, wherein the sections each comprise a section control system , and wherein the communication-capable units of the workstations of a section are connected to a section bus for communication with the section control system , wherein the sections each comprise at least two section busses connected to the section control system , wherein a first portion of the communication-capable units of the workstations is connected to a first one of the at least two section busses and a second portion of the communication-capable units of the workstations is connected to a second one of the at least two section busses characterized in that the first portion of the communication-capable units comprises multiple identical individual drives of the workstations , in particular individual rotor drives or air spinning nozzles, which are connected directly as bus users to the first section bus , and that the second portion of the communication-capable units comprises workstation control systems , wherein in each case multiple functional units of the workstations are connected to the workstation control systems .
A lens assembly comprising: a lens ; a light absorber ; a lens holder ; and an adhesive configured to adhere the lens to the lens holder characterised in that the light absorber comprises one or more metals capable of asbsorbing /reflecting UV light, wherein the metals comprise one or more of chromium, titanium, zinc, nickel, manganese, iron, niobium, silver, gold, hafnium, aluminum, and tantalum and that the light absorber does not transmit light with wavelengths from 190 nm to 500 nm; wherein the light absorber is positioned such that light having a wavelength from greater than or equal to 190 nm to less than or equal to 500 nm is not incident to the adhesive . a lens ; a light absorber ; a lens holder ; and an adhesive configured to adhere the lens to the lens holder characterised in that the light absorber comprises one or more metals capable of asbsorbing /reflecting UV light, wherein the metals comprise one or more of chromium, titanium, zinc, nickel, manganese, iron, niobium, silver, gold, hafnium, aluminum, and tantalum and that the light absorber does not transmit light with wavelengths from 190 nm to 500 nm;
Access hatch comprising: - a frame intended to be fixed to a structure; - a leaf pivotally mounted on the frame by means of a hinge comprising a first pivot pin on the frame , a second pivot pin on the leaf and an intermediate pivot pin between the first and second axes , allowing an offset of the leaf with respect to the frame when opening said leaf ; characterised in that the hatch further comprises: - horizontal adjustment means in the plane of the leaf ,of the second pivot pin ; and - vertical adjustment means of the first and of the second pin . - a frame intended to be fixed to a structure; - a leaf pivotally mounted on the frame by means of a hinge comprising a first pivot pin on the frame , a second pivot pin on the leaf and an intermediate pivot pin between the first and second axes , allowing an offset of the leaf with respect to the frame when opening said leaf ; - horizontal adjustment means in the plane of the leaf ,of the second pivot pin ; and - vertical adjustment means of the first and of the second pin .
A method for operating an OFDM receiver, the method comprising: performing operations, when a transmitter transmits OFDM symbols according to an allocation of non-overlapping channels in a two-dimensional resource space, wherein the resource space has a) a frequency dimension including a plurality of sub-carriers within an OFDM band and b) a time dimension including OFDM symbol durations that correspond respectively to the OFDM symbols , wherein the channels include diversity channels and sub-band channels , wherein each diversity channel is associated with a plurality of sub-carriers that are not entirely contiguous in the OFDM band, wherein each diversity channel is constructed from one or more of diversity sub-channels, wherein each diversity sub-channel comprises one or more distributed sets of contiguous sub-carriers , wherein each sub-band channel is associated with a contiguous set of sub-carriers within the OFDM band, wherein each sub-band channel is constructed from one or more of sub-band sub-channels, wherein diversity sub-channels are organized into allowable combinations for the diversity channels using at least one sub-channelization tree, wherein a sub-channelization tree comprises multiple levels, wherein a first level in the sub-channelization tree comprises a plurality of nodes, wherein each node of the first level represents a diversity sub-channel, wherein a subsequent level of the sub-channelization tree comprises one or more nodes, wherein each node of the subsequent level combines at least two nodes of a previous level and represents all sub-channels represented by the at least two nodes, wherein the transmission of at least some of the OFDM symbols simultaneously uses sub-carriers associated with a sub-band channel and sub-carriers associated with a diversity channel, wherein the operations include: receiving information identifying an activated portion of a first sub-channelization tree of the at least one sub-channelization tree, and an assignment of a first of the diversity channels from the activated portion of the first sub-channelization tree of the at least one sub-channelization tree; and receiving the diversity channel over one or more of the OFDM symbols that are transmitted by the transmitter. receiving information identifying an activated portion of a first sub-channelization tree of the at least one sub-channelization tree, and an assignment of a first of the diversity channels from the activated portion of the first sub-channelization tree of the at least one sub-channelization tree; and receiving the diversity channel over one or more of the OFDM symbols that are transmitted by the transmitter.
A shaping structure (1; 101; 201; 301), comprising two shaping sheets facing each other at a distance from one another, wherein the shaping structure (1; 101; 201; 301) further comprises a spacer sheet , the spacer sheet being arranged between the two shaping sheets and being corrugated in such a way as to form a series of alternating even peaks and odd peaks , distributed in a first direction (D1) of the shaping structure, at least one of the even peaks being attached to the first shaping sheet , at least one of the odd peaks being attached to the second shaping sheet , each peak attached in this way defining an attachment surface for attachment to the shaping sheet to which this peak is attached, the shaping structure being characterized in that : - among the two shaping sheets , at least one shaping sheet comprises a layer of nonwoven material; and - the spacer sheet is macroporous and comprises a grid of longitudinal threads and transverse threads connected at their intersections. - among the two shaping sheets , at least one shaping sheet comprises a layer of nonwoven material; and - the spacer sheet is macroporous and comprises a grid of longitudinal threads and transverse threads connected at their intersections.