mhurhangee/patent-ind-claim-en huggingface dataset:
Leakage protection device for a tank for a toilet of a bathroom, said tank being of a recessed type in a bathroom wall or of the type disposed on the back of a bathroom wall , said leakage protection device comprising: - a shell comprising a shell perimeter edge ; - a closing panel joined to the shell at the shell perimeter edge so as to define a chamber intended to house the tank , said closing panel being designed to be substantially parallel to the bathroom wall ; wherein the protection device is configured to completely enclose the tank , and wherein the closing panel comprises at least one upper opening to allow access to the tank, and a lower opening , distinct from the upper opening , suitable to accommodate the passage of a pipe for flushing water from the tank to the toilet , characterized in that the closing panel is suitable for supporting the flush tank and the shell by itself, so that the flush tank , when installed, and the shell , can be directly anchored to, and supported only by the closing panel , allowing thereby to install the protection device on the bathroom wall once the shell has been closed on the closing panel . - a shell comprising a shell perimeter edge ; - a closing panel joined to the shell at the shell perimeter edge so as to define a chamber intended to house the tank , said closing panel being designed to be substantially parallel to the bathroom wall ;
A method for forming a semiconductor product comprising a buried contact with a buried power rail, the method comprising: - providing a semiconductor substrate comprising a buried power rail , - forming a sacrificial plug at a contact surface on the buried power rail , - applying a front-end-of-line module for forming devices in the semiconductor substrate, - providing a Via , through layers applied by the front-end-module, which joins the sacrificial plug on the buried power rail , - selectively removing the sacrificial plug thereby obtaining a cavity above the buried power rail, - filling the cavity with a metal to electrically connect the devices with the buried power rail , wherein the sacrificial plug is formed such that the contact surface area is larger than an area of a cross-section of the Via parallel with the contact surface. - providing a semiconductor substrate comprising a buried power rail , - forming a sacrificial plug at a contact surface on the buried power rail , - applying a front-end-of-line module for forming devices in the semiconductor substrate, - providing a Via , through layers applied by the front-end-module, which joins the sacrificial plug on the buried power rail , - selectively removing the sacrificial plug thereby obtaining a cavity above the buried power rail, - filling the cavity with a metal to electrically connect the devices with the buried power rail , wherein the sacrificial plug is formed such that the contact surface area is larger than an area of a cross-section of the Via parallel with the contact surface.
A subsea hydrocarbon flow compression system for receiving a hydrocarbon stream from at least one upstream flowline and supplying the hydrocarbon stream to at least one downstream flowline at an increased pressure, wherein the compression system comprises first and second compressor trains , wherein each compressor train comprises: - an inlet port which is connectable to the at least one upstream flowline ; - an outlet port which is connectable to the at least one downstream flowline ; - a conditioning unit which is connected to the inlet port via a first flowline ; and - a first flow path for the hydrocarbon fluid comprising a compressor , which compressor is connected to the conditioning unit via a second flowline and to the outlet port via a third flowline , wherein a controllable first valve is arranged in the third flowline of the first compressor train for controlling hydrocarbon flow from the compressor to the outlet port of the first compressor train , characterised in that a controllable second valve is arranged in the second flowline of the second compressor train for controlling hydrocarbon flow from the conditioning unit to the compressor of the second compressor train , and in that the system comprises: - a first cross-over flowline interconnecting the third flowline of the first compressor train upstream of the first valve and the second flowline of the second compressor train downstream of the second valve , wherein a controllable first cross-over valve is arranged in the first cross-over flowline for controlling hydrocarbon flow through the first cross-over flowline . - an inlet port which is connectable to the at least one upstream flowline ; - an outlet port which is connectable to the at least one downstream flowline ; - a conditioning unit which is connected to the inlet port via a first flowline ; and - a first flow path for the hydrocarbon fluid comprising a compressor , which compressor is connected to the conditioning unit via a second flowline and to the outlet port via a third flowline , - a first cross-over flowline interconnecting the third flowline of the first compressor train upstream of the first valve and the second flowline of the second compressor train downstream of the second valve , wherein a controllable first cross-over valve is arranged in the first cross-over flowline for controlling hydrocarbon flow through the first cross-over flowline .
Process for manufacturing a pneumatic tyre , comprising the following steps: a) forming a carcass based on uncured rubber material and then curing the carcass so as to make it elastic; b) overmoulding on the cured carcass at least one material based on thermoplastic elastomer by injecting the material based on thermoplastic elastomer in a mould so as to form exterior sidewalls and a tread on the carcass . a) forming a carcass based on uncured rubber material and then curing the carcass so as to make it elastic; b) overmoulding on the cured carcass at least one material based on thermoplastic elastomer by injecting the material based on thermoplastic elastomer in a mould so as to form exterior sidewalls and a tread on the carcass .
A computer-implemented method, comprising: determining a plurality of sequences of robot operations corresponding to a plurality of robot actors performing a manufacturing process within a physical workcell, wherein the robot operations comprise a plurality of robot movements and at least one tool action, wherein a tool action comprises a manipulation of at least one physical tool by at least one robot actor; causing the plurality of robot actors to execute a portion of the plurality of sequences of robot operations during a first time period at particular points in time along a global timeline corresponding to the manufacturing process; receiving an interrupt signal from a mobile computing device indicating a modification to the plurality of sequences of robot operations, wherein the mobile computing device is configured to display a graphical user interface during the first time period, wherein the graphical user interface comprises a plurality of parameters describing the plurality of robot actors, one or more tool parameters describing operating characteristics of the at least one physical tool, and a plurality of controls for simultaneously controlling attributes of multiple of the plurality of robot actors; and causing the plurality of robot actors to execute a portion of the modified plurality of sequences of robot operations during a second time period. determining a plurality of sequences of robot operations corresponding to a plurality of robot actors performing a manufacturing process within a physical workcell, wherein the robot operations comprise a plurality of robot movements and at least one tool action, wherein a tool action comprises a manipulation of at least one physical tool by at least one robot actor; causing the plurality of robot actors to execute a portion of the plurality of sequences of robot operations during a first time period at particular points in time along a global timeline corresponding to the manufacturing process; receiving an interrupt signal from a mobile computing device indicating a modification to the plurality of sequences of robot operations, wherein the mobile computing device is configured to display a graphical user interface during the first time period, wherein the graphical user interface comprises a plurality of parameters describing the plurality of robot actors, one or more tool parameters describing operating characteristics of the at least one physical tool, and a plurality of controls for simultaneously controlling attributes of multiple of the plurality of robot actors; and causing the plurality of robot actors to execute a portion of the modified plurality of sequences of robot operations during a second time period.
A method performed by a User Equipment, in the following also referred to as UE, comprising: the UE receives a configuration that the UE communicates with a first serving cell and a second serving cell ; and the UE receives a configuration of a periodicity for monitoring a downlink control signal in the first serving cell , wherein the downlink control signal includes a pre-emption indication, in the following also referred to as PI, for the second serving cell, characterised in that the periodicity for monitoring the downlink control signal in the first serving cell includes an integer number of symbol(s) of the second serving cell, wherein a subcarrier spacing, in the following also referred to as SCS, of an activated bandwidth part, in the following also referred to as BWP, of the first serving cell is different from a SCS of an activated BWP of the second serving cell, wherein the UE does not expect to receive a configuration such that the periodicity includes a non-integer number of symbol(s) of the second serving cell. the UE receives a configuration that the UE communicates with a first serving cell and a second serving cell ; and the UE receives a configuration of a periodicity for monitoring a downlink control signal in the first serving cell , wherein the downlink control signal includes a pre-emption indication, in the following also referred to as PI, for the second serving cell, characterised in that the periodicity for monitoring the downlink control signal in the first serving cell includes an integer number of symbol(s) of the second serving cell, wherein a subcarrier spacing, in the following also referred to as SCS, of an activated bandwidth part, in the following also referred to as BWP, of the first serving cell is different from a SCS of an activated BWP of the second serving cell, wherein the UE does not expect to receive a configuration such that the periodicity includes a non-integer number of symbol(s) of the second serving cell.
An audio communication system comprising a speaker device having at least one speaker, a first wireless communication unit and a first connector part, a dongle having control functionality, a second wireless communication unit, and a second connector part, the dongle being configured to operate in a first mode being an audio communication system pairing mode and in a second mode being an audio communication system operating mode, wherein the second connector part of the dongle, in the audio communication system pairing mode, is configured to interconnect with the first connector part to enable pairing of the dongle and the speaker device, wherein the second connector part of the dongle, in the audio communication system operating mode, is configured to physically connect to a third connector part of an external device, to provide wireless communication between the first wireless communication unit of the speaker device and the external device via the second wireless communication unit of the dongle. a speaker device having at least one speaker, a first wireless communication unit and a first connector part, a dongle having control functionality, a second wireless communication unit, and a second connector part, the dongle being configured to operate in a first mode being an audio communication system pairing mode and in a second mode being an audio communication system operating mode, wherein the second connector part of the dongle, in the audio communication system pairing mode, is configured to interconnect with the first connector part to enable pairing of the dongle and the speaker device, wherein the second connector part of the dongle, in the audio communication system operating mode, is configured to physically connect to a third connector part of an external device, to provide wireless communication between the first wireless communication unit of the speaker device and the external device via the second wireless communication unit of the dongle.
A method of supporting sporadic packet service for massive machine type communications by a user equipment , UE, the method comprising: receiving, from a base station , BS, control information, including predefined timing information for synchronization, resource allocation information and hopping pattern information; performing transmission synchronization based on the predefined timing information when uplink traffic occurs; selecting a first resource for uplink data transmission based on the resource allocation information; and transmitting, to the BS , sporadic packet of uplink data through the first resource, wherein when a Negative Acknowledgement, NACK, signal for the transmitted sporadic packet of uplink data is received, selecting a second resource for uplink data retransmission in response to the NACK signal by performing resource hopping based on the hopping pattern information. receiving, from a base station , BS, control information, including predefined timing information for synchronization, resource allocation information and hopping pattern information; performing transmission synchronization based on the predefined timing information when uplink traffic occurs; selecting a first resource for uplink data transmission based on the resource allocation information; and transmitting, to the BS , sporadic packet of uplink data through the first resource, wherein when a Negative Acknowledgement, NACK, signal for the transmitted sporadic packet of uplink data is received, selecting a second resource for uplink data retransmission in response to the NACK signal by performing resource hopping based on the hopping pattern information.
Fastening device for producing a connection between a muntin profile and a frame part, particularly between a light-metal center muntin profile and a light metal frame profile of a window frame or of a door frame, wherein the fastening device has a frame-side part which can be connected to a muntin-side part , wherein the muntin-side part is designed to be fastened on the muntin profile , and wherein the muntin-side part is designed to be connected to the frame-side part in such a way that the relative position and alignment of the muntin profile is fixed in relation to the frame part, wherein the muntin-side part has at least two flexible position-holding elements , characterized in that the at least two flexible position-holding elements are respectively embodied as position-holding springs and designed to ensure a holding of the position of the muntin-side part during at least one temporally limited step of a mounting process, wherein the at least two flexible position-holding elements are arranged on opposite sides of the muntin-side part , and wherein the muntin-side part can be inserted into the muntin profile by overcoming the spring force of the position-holding springs.
A system for thermal energy storage and delivery, comprising: a thermal storage assemblage including a plurality of thermal storage blocks, wherein at least some of the thermal storage blocks include multiple radiation cavities and multiple fluid flow slots , wherein some of the radiation cavities and some of the fluid flow slots are configured to define fluid pathways through the thermal storage blocks; a plurality of heater elements positioned within the thermal storage assemblage and adjacent to at least some of the radiation cavities, wherein each of the plurality of heater elements is configured to heat at least one of the thermal storage blocks via energy radiated into multiple ones of the radiation cavities and onto surfaces that bound the respective radiation cavities; and a fluid movement system configured to direct a stream of fluid through the fluid pathways. a thermal storage assemblage including a plurality of thermal storage blocks, wherein at least some of the thermal storage blocks include multiple radiation cavities and multiple fluid flow slots , wherein some of the radiation cavities and some of the fluid flow slots are configured to define fluid pathways through the thermal storage blocks; a plurality of heater elements positioned within the thermal storage assemblage and adjacent to at least some of the radiation cavities, wherein each of the plurality of heater elements is configured to heat at least one of the thermal storage blocks via energy radiated into multiple ones of the radiation cavities and onto surfaces that bound the respective radiation cavities; and a fluid movement system configured to direct a stream of fluid through the fluid pathways.
A lifting apparatus, comprising a frame and a carriage , the carriage being mounted on the frame through a mounting , the carriage being provided with a loading surface for a load having a bottom, the mounting comprising a bar on one of the frame and the carriage and a track on the other of the frame and the carriage , characterised by the bar being captive within the track allowing the carriage , in use, to rotate relative to the frame about the bar and to slide linearly relative to the frame constrained to a path defined by the track, such that the load can be pivoted about its bottom.
A method for supplying a lubricant or release agent from a dosing station to molding tools arranged in a pressing chamber of a tablet press via a feed pipe connecting the dosing station with the pressing chamber , wherein at least the pressing chamber of the tablet press is exposed to a negative pressure with respect to the surroundings, wherein a pressure measurement is performed in the feed pipe and/or the pressing chamber , wherein a shut-off valve arranged on the feed pipe between the dosing station and the pressing chamber is only opened, and is only maintained in the open position, if there is an enable signal due to the pressure measurement, characterized in that , during the pressure measurement, the pressure upstream of the shut-off valve and the pressing chamber pressure in the pressing chamber of the tablet press are measured, and there is only an enable signal if the pressure upstream of the shut-off valve is greater than the pressing chamber pressure by a given first limit pressure.
A method for milking a milk-producing animal, especially a cow, comprising the following steps: determining a target quantity of milk that is smaller than a possible quantity of milk to be expected, carrying out a milking operation; ascertaining a milked quantity of milk during a milking operation; comparing the milked quantity of milk with the target quantity of milk; ending the milking operation when the milked quantity of milk substantially corresponds to the target quantity of milk, in which a start day, before a dry-off day, is determined and milking is carried out with a target quantity of milk from that day.
Connection device designed to connect a first element and a second element and to separate the first and second elements from each other on command, the device comprising: - a first base plate that can be used to fasten the connection device onto a surface of the first element , - a first connection wall forming a protuberance from the first base plate and having an internal surface delimiting an internal volume (V) located on the side of the first base plate on a first side, and a first connection surface located on a second side opposite the first side, - a second base plate that can be used to fasten the connection device onto a surface of the second element , - a second connection wall fixed to the second base plate and having a second connection surface covering the first connection wall so as to form a space (S) between the first and second connection surfaces , - a bonding layer composed of a layer of adhesive material or a weld, formed in said space (S) in contact with each of the first and second connection surfaces , such that the shape of the bonding layer is such that, when viewed in a section in any plane locally orthogonal to the first base plate , the bonding layer extends along at least two distinct directions, characterized in that - a heat-generating material is arranged in the internal volume (V) so as to heat the bonding layer by thermal conduction through the first connection wall . - a first base plate that can be used to fasten the connection device onto a surface of the first element , - a first connection wall forming a protuberance from the first base plate and having an internal surface delimiting an internal volume (V) located on the side of the first base plate on a first side, and a first connection surface located on a second side opposite the first side, - a second base plate that can be used to fasten the connection device onto a surface of the second element , - a second connection wall fixed to the second base plate and having a second connection surface covering the first connection wall so as to form a space (S) between the first and second connection surfaces , - a bonding layer composed of a layer of adhesive material or a weld, formed in said space (S) in contact with each of the first and second connection surfaces , such that the shape of the bonding layer is such that, when viewed in a section in any plane locally orthogonal to the first base plate , the bonding layer extends along at least two distinct directions, characterized in that - a heat-generating material is arranged in the internal volume (V) so as to heat the bonding layer by thermal conduction through the first connection wall .
A heated aerosol-generating article for use with an aerosol-generating device having a heating element, the heated aerosol-generating article comprising an aerosol-forming substrate and a breachable air-flow barrier assembled within a wrapper to form a rod having a mouth end and a distal end upstream from the mouth end, in which the breachable air-flow barrier is positioned to substantially prevent air being drawn through the aerosol-forming substrate when a user draws on the mouth end of the rod, and in which the aerosol-forming substrate comprises a gathered sheet of aerosol-forming material.
A computer-implemented method for a computing resource network provider, the method for providing use of an hardware security module, HSM, as a service, comprising: creating a service virtual network, VN , in the computing resource provider network; the method being characterized in : receiving , from a customer device, a request for the HSM where the request includes a set of parameters for the HSM, said parameters enabling the computing resource provider to integrate the HSM with a VN of the customer; configuring the HSM with which the customer will communicate through the service VN; creating a network interface in the customer VN; configuring any settings in the service VN and the network interface to allow for communications between the network interface and the service VN; providing a network address of the network interface and credentials for the HSM to the customer device. receiving , from a customer device, a request for the HSM where the request includes a set of parameters for the HSM, said parameters enabling the computing resource provider to integrate the HSM with a VN of the customer; configuring the HSM with which the customer will communicate through the service VN; creating a network interface in the customer VN; configuring any settings in the service VN and the network interface to allow for communications between the network interface and the service VN; providing a network address of the network interface and credentials for the HSM to the customer device.