mhurhangee/patent-ind-claim-en huggingface dataset:
A method of coating a target object , comprising: preparing a lithography system including: a processor configured to process an image of the target object and determine an optical pattern for a coating layer of the target object ; and an exposure apparatus configured to provide the optical pattern determined by the processor to a substrate; preparing a substrate having one surface on which at least one target object is disposed; forming photoresist on at least a portion of surfaces of the substrate and the target object ; forming a perimeter wall for a coating layer of the target object by processing an image of the target object by the processor ; and providing a resin to the substrate and at least the partial region of the surface of the target object surrounded by the perimeter wall , wherein forming the perimeter wall comprises: obtaining the image of the target object ; and providing light, by the exposure apparatus , having an optical pattern corresponding to the perimeter wall to the substrate using the obtained image of the target object . preparing a lithography system including: a processor configured to process an image of the target object and determine an optical pattern for a coating layer of the target object ; and an exposure apparatus configured to provide the optical pattern determined by the processor to a substrate; a processor configured to process an image of the target object and determine an optical pattern for a coating layer of the target object ; and an exposure apparatus configured to provide the optical pattern determined by the processor to a substrate; preparing a substrate having one surface on which at least one target object is disposed; forming photoresist on at least a portion of surfaces of the substrate and the target object ; forming a perimeter wall for a coating layer of the target object by processing an image of the target object by the processor ; and providing a resin to the substrate and at least the partial region of the surface of the target object surrounded by the perimeter wall , wherein forming the perimeter wall comprises: obtaining the image of the target object ; and providing light, by the exposure apparatus , having an optical pattern corresponding to the perimeter wall to the substrate using the obtained image of the target object . obtaining the image of the target object ; and providing light, by the exposure apparatus , having an optical pattern corresponding to the perimeter wall to the substrate using the obtained image of the target object .
A declutching system for a handle arrangement of a motor vehicle comprising an axle whereon are arranged a housing and a declutching member , the declutching system presenting two positions, a clutch position wherein the declutching member blocks the housing in rotation around the axle by cooperating with a cam of the housing and a declutch position wherein the declutching member allows the housing to rotate around the axle , characterized in that the declutching member comprises a pivotable arranged lever and an elastic member , the lever being provided with a head at its free end cooperating with the elastic member , wherein in the clutch position of the declutching system , the head of the lever cooperates with the cam of the housing so as to prevent the housing from rotating about the axle and is maintained in position by the elastic member , and wherein in the declutch position of the declutching system , the head of the lever compresses the elastic member enabling the rotationally displacement of the housing around the axle . the declutching member comprises a pivotable arranged lever and an elastic member , the lever being provided with a head at its free end cooperating with the elastic member , wherein in the clutch position of the declutching system , the head of the lever cooperates with the cam of the housing so as to prevent the housing from rotating about the axle and is maintained in position by the elastic member , and wherein in the declutch position of the declutching system , the head of the lever compresses the elastic member enabling the rotationally displacement of the housing around the axle .
A core network device , comprising: a receiving module , configured to receive a migration instruction sent by a core network management device , wherein the migration instruction carries first identification information of a target core network device and migration information of a plurality of to-be-migrated user equipment, UEs; a sending module , configured to send, according to the migration information of the to-be-migrated UEs that is received by the receiving module , indication messages used to instruct the to-be-migrated UEs to detach, to the to-be-migrated UEs; and send a migration rule to an access network device according to the migration instruction received by the receiving module, so that the access network device migrates , according to the migration rule, the to-be-migrated UEs from a source core network device to the target core network device , wherein the migration rule comprises identification information of the source core network device and second identification information of the target core network device ; wherein the migration information comprises at least one of the following: a quantity of the to-be-migrated UEs, a percentage of the quantity of the to-be-migrated UEs in a total quantity of all UEs accessing the source core network device , a percentage of the quantity of the to-be-migrated UEs in a quantity of UEs accessing a base station to which the to-be-migrated UEs belong, identification information of the base station to which the to-be-migrated UEs belong, or identification information of the to-be-migrated UEs. a receiving module , configured to receive a migration instruction sent by a core network management device , wherein the migration instruction carries first identification information of a target core network device and migration information of a plurality of to-be-migrated user equipment, UEs; a sending module , configured to send, according to the migration information of the to-be-migrated UEs that is received by the receiving module , indication messages used to instruct the to-be-migrated UEs to detach, to the to-be-migrated UEs; and send a migration rule to an access network device according to the migration instruction received by the receiving module, so that the access network device migrates , according to the migration rule, the to-be-migrated UEs from a source core network device to the target core network device , wherein the migration rule comprises identification information of the source core network device and second identification information of the target core network device ; wherein the migration information comprises at least one of the following: a quantity of the to-be-migrated UEs, a percentage of the quantity of the to-be-migrated UEs in a total quantity of all UEs accessing the source core network device , a percentage of the quantity of the to-be-migrated UEs in a quantity of UEs accessing a base station to which the to-be-migrated UEs belong, identification information of the base station to which the to-be-migrated UEs belong, or identification information of the to-be-migrated UEs.
Bit holder comprising a drive shaft that can be rotatably driven about an axis of rotation, comprising a driven sleeve part having an insertion opening for inserting a screwdriver bit , comprising a coupling sleeve which at least partially surrounds the drive shaft and which can be moved, in the direction of the axis of rotation, from a coupling position, in which a coupling zone associated with the coupling sleeve together with a mating coupling zone of the drive shaft and the coupling sleeve together with the driven sleeve part are interconnected in each case by means of an interlocking polygonal form fit such that rotation of the drive shaft can be transmitted to the driven sleeve part , into a free-running position, in which the coupling zone and the mating coupling zone are located in free-running portions of the drive shaft and driven sleeve part , respectively, such that rotation of the drive shaft is not transmitted to the driven sleeve part .
A method of receiving data, comprising: receiving a transmission of data, the data comprising multiple packets; processing the received transmission to decode the multiple packets; and generating acknowledgement, ACK, information for the multiple packets prior to decoding all of the multiple packets, wherein the generating ACK information for the multiple packets comprises: generating ACK information for the multiple packets after decoding L packets among the multiple K packets, where L is one or greater and is less than K; setting the ACK information to an ACK if all of the L packets are decoded correctly; setting the ACK information to a negative acknowledgement, NAK, if any one of the L packets is decoded in error;sending the ACK information prior to completing decoding for all of the multiple packets; and, continuing to decode the remaining K-L packets after sending the ACK information, wherein the L packets include all packets that can be decoded prior to the ACK transmission time. receiving a transmission of data, the data comprising multiple packets; processing the received transmission to decode the multiple packets; and generating acknowledgement, ACK, information for the multiple packets prior to decoding all of the multiple packets, wherein the generating ACK information for the multiple packets comprises: generating ACK information for the multiple packets after decoding L packets among the multiple K packets, where L is one or greater and is less than K; setting the ACK information to an ACK if all of the L packets are decoded correctly; setting the ACK information to a negative acknowledgement, NAK, if any one of the L packets is decoded in error;sending the ACK information prior to completing decoding for all of the multiple packets; and, continuing to decode the remaining K-L packets after sending the ACK information, generating ACK information for the multiple packets after decoding L packets among the multiple K packets, where L is one or greater and is less than K; setting the ACK information to an ACK if all of the L packets are decoded correctly; setting the ACK information to a negative acknowledgement, NAK, if any one of the L packets is decoded in error;sending the ACK information prior to completing decoding for all of the multiple packets; and, continuing to decode the remaining K-L packets after sending the ACK information, wherein the L packets include all packets that can be decoded prior to the ACK transmission time.
A method of filling containers with rod-like articles wherein the rod-like articles are fed by means of a feeder of rod-like articles, the rod-like articles are inserted into the container, characterised in that before inserting the rod-like articles into the container an arrangement of the rod-like articles whose centres are arranged according to a tessellation described by the formula (3 6 ; 3 3 .4 2 ) v=2, t=3, e=4 is formed. the rod-like articles are fed by means of a feeder of rod-like articles, the rod-like articles are inserted into the container,
An X-ray modulator , the X-ray modulator comprising: an enclosed chamber having a window portion and a side portion , wherein the window portion is in gaseous communication with the side portion, the enclosed chamber comprising a chamber wall , wherein the chamber wall at the window portion is thinner than the chamber wall at the side portion; a pressure modulation device provided in the side portion of the enclosed chamber and adapted to modulate the pressure within the enclosed chamber; and an absorption gas within the enclosed chamber for absorbing X-ray radiation. an enclosed chamber having a window portion and a side portion , wherein the window portion is in gaseous communication with the side portion, the enclosed chamber comprising a chamber wall , wherein the chamber wall at the window portion is thinner than the chamber wall at the side portion; a pressure modulation device provided in the side portion of the enclosed chamber and adapted to modulate the pressure within the enclosed chamber; and an absorption gas within the enclosed chamber for absorbing X-ray radiation.
A wall construction with a light passage region and with a wall region which confines the light passage region, comprising - a sub-construction with a panelling , - a pane composite which is inserted into the sub-construction in the light passage region of the wall construction , with at least two outer panes , with at least one spacer which connects the outer panes to one another, and with at least one holding portion , o wherein the pane composite is arranged essentially flush-mounted with the panelling of the sub-construction , wherein the at least one holding portion projects into the wall region and is fixable in the wall region, characterised in that the at least one holding portion is formed by an intermediate pane and the outer panes are each connected with a spacer to the intermediate pane. - a sub-construction with a panelling , - a pane composite which is inserted into the sub-construction in the light passage region of the wall construction , with at least two outer panes , with at least one spacer which connects the outer panes to one another, and with at least one holding portion , o wherein the pane composite is arranged essentially flush-mounted with the panelling of the sub-construction , o wherein the pane composite is arranged essentially flush-mounted with the panelling of the sub-construction ,
System for protecting a surface of an aircraft against frost by spraying a quantity of heating air (Q req ) against said surface to heat it, this quantity of heating air (Q req ) requiring to have a temperature (T req ) both higher than a threshold value for which the function of protection against frost is provided, and below a maximum acceptable value for the materials constituting the surface , this system comprising: - means for taking a quantity of taken air (Q eng ) at a pneumatic hot source and conveying this quantity of taken air (Q eng ), the quantity of taken air (Q eng ) having a temperature (T eng ) higher than the maximum acceptable temperature; - means for capturing and conveying a quantity of collected air (Q coll ) corresponding to a portion of the quantity of heating air (Q req ) after spraying of same against the surface to be heated, this quantity of collected air (Q coll ) having a temperature (T coll ) below the acceptable temperature (T req ); - means for conveying towards and spraying the quantity of heating air (Q req ) against the aircraft surface to be heated, characterised in that : the system further comprises regulation and mixing means that regulate the quantities of collected (Qcoll) and taken (Qeng) air to form, by mixing these two quantities, the quantity of heating air (Qreq) at the acceptable temperature (Treq). - means for taking a quantity of taken air (Q eng ) at a pneumatic hot source and conveying this quantity of taken air (Q eng ), the quantity of taken air (Q eng ) having a temperature (T eng ) higher than the maximum acceptable temperature; - means for capturing and conveying a quantity of collected air (Q coll ) corresponding to a portion of the quantity of heating air (Q req ) after spraying of same against the surface to be heated, this quantity of collected air (Q coll ) having a temperature (T coll ) below the acceptable temperature (T req ); - means for conveying towards and spraying the quantity of heating air (Q req ) against the aircraft surface to be heated,
A pin bone removal apparatus for removing pin bones in fish fillets (106, 123-125) while the fish fillets are conveyed by a conveyor means at a first conveying speed , comprising: • a plurality of pin bone removal units (101, 120-122), for pulling the pin bones from the fish fillets, and wherein the apparatus further comprises: • a closed loop rail structure to which the plurality of pin bone removal units are slideable attached to, where the closed loop rail structure comprises a processing section , and a returning section , the processing section being a section where at least one of the plurality of pin bone removal units are moved parallel to said fish fillets at a second conveying speed and engage with the surface of the fish fillets while removing the pin bones therefrom with said pin bone removal unit where subsequent to the pin bone removal the at least one pin bone removal unit is recirculated along said returning section and back to a starting position of said processing section where the pin bone removal process is repeated on forthcoming fish fillets, characterized in that each of the pin bone removal units comprises a pin bone roller . • a plurality of pin bone removal units (101, 120-122), for pulling the pin bones from the fish fillets, and • a closed loop rail structure to which the plurality of pin bone removal units are slideable attached to, where the closed loop rail structure comprises a processing section , and a returning section , the processing section being a section where at least one of the plurality of pin bone removal units are moved parallel to said fish fillets at a second conveying speed and engage with the surface of the fish fillets while removing the pin bones therefrom with said pin bone removal unit where subsequent to the pin bone removal the at least one pin bone removal unit is recirculated along said returning section and back to a starting position of said processing section where the pin bone removal process is repeated on forthcoming fish fillets, characterized in that each of the pin bone removal units comprises a pin bone roller .
An apparatus comprising means for: causing a first image of live viewfinder data to be displayed to a user, the first image comprising one or more selectable objects ; receiving a first user input selecting at least one selectable object from the first image; subsequent to receiving the first user input, causing a second image of live viewfinder data to be displayed to the user, the second image comprising a second instance of the at least one selected object in a changed position from the first image; in response to a user capture input, combining the at least one selected object of the first image and the second image to create a composite image comprising the at least one selectable object from the first image and the second instance of the at least one selected object in a changed position from the first image; and causing the composite image to be stored. causing a first image of live viewfinder data to be displayed to a user, the first image comprising one or more selectable objects ; receiving a first user input selecting at least one selectable object from the first image; subsequent to receiving the first user input, causing a second image of live viewfinder data to be displayed to the user, the second image comprising a second instance of the at least one selected object in a changed position from the first image; in response to a user capture input, combining the at least one selected object of the first image and the second image to create a composite image comprising the at least one selectable object from the first image and the second instance of the at least one selected object in a changed position from the first image; and causing the composite image to be stored.
Modular control system (1-10) comprising a first computer , a second computer , an energy supply , and intelligent gateways , wherein the first computer is configured to repetitively commit control data to the gateways and the second computer is configured to, depending on an assessment of the system (1-10) by the second computer , signal to the gateways to release or withhold the control data, characterized in a redundant base bus for transmitting the control data and acquiring information, wherein the system (1-10) is configured such that if any one of the gateways fails, emergency control is taken over by the first computer or second computer and the control data is henceforth committed directly to the base bus and the energy supply is redundant and configured to, on demand by the second computer , selectively reset the computers in case of a software failure. a first computer , a second computer , an energy supply , and intelligent gateways , wherein the first computer is configured to repetitively commit control data to the gateways and the second computer is configured to, depending on an assessment of the system (1-10) by the second computer , signal to the gateways to release or withhold the control data, characterized in a redundant base bus for transmitting the control data and acquiring information, wherein the system (1-10) is configured such that if any one of the gateways fails, emergency control is taken over by the first computer or second computer and the control data is henceforth committed directly to the base bus and the energy supply is redundant and configured to, on demand by the second computer , selectively reset the computers in case of a software failure.
Gear arrangement for a spindle drive arrangement ,comprising a gear housing and a gear holder , the gear holder having at least two receiving openings for in each case one fastening screw or in each case one fastening pin for fastening to another component, in particular to a vehicle seat, and these at least two receiving openings being oriented at a right angle and/or obliquely with respect to one another, characterized in that the gear housing is mounted pivotably on the gear holder .
A method for forming a bottom electrode surface for MTJ structures, comprising: depositing a blanket layer of a refractory metal on a substrate having conductive vias formed thereon; patterning and etching the refractory metal layer to form one or more bottom electrode pads ; depositing a dielectric material over the one or more bottom electrode pads ; chemically mechanically polishing the dielectric material to expose the one or more bottom electrode pads ; depositing a bottom electrode buff layer over the dielectric material and exposed one or more bottom electrode pads ; and chemically mechanically polishing the bottom electrode buff layer . depositing a blanket layer of a refractory metal on a substrate having conductive vias formed thereon; patterning and etching the refractory metal layer to form one or more bottom electrode pads ; depositing a dielectric material over the one or more bottom electrode pads ; chemically mechanically polishing the dielectric material to expose the one or more bottom electrode pads ; depositing a bottom electrode buff layer over the dielectric material and exposed one or more bottom electrode pads ; and chemically mechanically polishing the bottom electrode buff layer .