mhurhangee/patent-ind-claim-en huggingface dataset:
A detecting system for protection of an equipment , the equipment being disposed on a working surface (P) and defining a working space (W) corresponding to the working surface (P), the detecting system comprising: a first diverting element approximately surrounding the equipment and being disposed away from the working surface (P) with respect to the equipment , the first diverting element including at least one diverting surface , the diverting surface being not parallel to the working surface (P); a detecting apparatus including an electronic control device and a first detector , the first detector having a transmitter , a receiver , and a controller ; and a first safety wave curtain correspondingly covering the working space (W); wherein the controller controls the transmitter and the receiver to synchronously rotate about an axis (C), N detection waves are sequentially transmitted along with N times of time detections correspondingly during every rotation, characterized in that the detection waves cooperate with the diverting surface of the first diverting element and the working surface (P) to form the first safety wave curtain , and the first safety wave curtain comprises a cover area approximately perpendicular to the axis (C) and a surrounding area parallel to the axis (C), wherein the cover area is formed between the transmitter and the first diverting element , and the surrounding area is formed between the first diverting element and the working surface (P). a first diverting element approximately surrounding the equipment and being disposed away from the working surface (P) with respect to the equipment , the first diverting element including at least one diverting surface , the diverting surface being not parallel to the working surface (P); a detecting apparatus including an electronic control device and a first detector , the first detector having a transmitter , a receiver , and a controller ; and a first safety wave curtain correspondingly covering the working space (W); wherein the controller controls the transmitter and the receiver to synchronously rotate about an axis (C), N detection waves are sequentially transmitted along with N times of time detections correspondingly during every rotation, characterized in that the detection waves cooperate with the diverting surface of the first diverting element and the working surface (P) to form the first safety wave curtain , and the first safety wave curtain comprises a cover area approximately perpendicular to the axis (C) and a surrounding area parallel to the axis (C), wherein the cover area is formed between the transmitter and the first diverting element , and the surrounding area is formed between the first diverting element and the working surface (P).
Method for producing an article (G) made of concrete or mortar by means of 3D printing, in which: (a) webs of a concrete or mortar compound are applied on top of one another in layers by an industrial robot, as a result of which a raw article (G') is produced, (b) a region (B) of the raw article (G') is removed, so that a feedthrough (B') is produced, characterised in that, in method step (b), before the curing of the raw article (G'), a portion of the region (B) is removed by a separating manufacturing process, by wiping or lifting off, at least one support pillar remaining, which is removed by a separating manufacturing process after the complete or partial curing. (a) webs of a concrete or mortar compound are applied on top of one another in layers by an industrial robot, as a result of which a raw article (G') is produced, (b) a region (B) of the raw article (G') is removed, so that a feedthrough (B') is produced, characterised in that, in method step (b), before the curing of the raw article (G'), a portion of the region (B) is removed by a separating manufacturing process, by wiping or lifting off, at least one support pillar remaining, which is removed by a separating manufacturing process after the complete or partial curing.
An aerosol delivery device comprising: a housing defining an outer wall, and further including a power source and a control component; an exit aerosol path defined through an opening ; a tank portion that includes a reservoir configured to contain a liquid composition; and an atomization assembly (915A;915B) configured to vaporize the liquid composition to generate an aerosol, wherein the atomization assembly comprises two or more vibrating assemblies (915A;915B), at least one of which is in fluid communication with the reservoir , wherein each vibrating assembly (915A;915B) includes a mesh plate, characterised in that the mesh plates are substantially non-coplanar, and wherein there are two vibrating assemblies (915A;915B), wherein the opening is offset from the center of the device, and wherein each of the mesh plates of the vibrating assemblies defines an acute angle with respect to a portion of the exit aerosol path proximate the opening . a housing defining an outer wall, and further including a power source and a control component; an exit aerosol path defined through an opening ; a tank portion that includes a reservoir configured to contain a liquid composition; and an atomization assembly (915A;915B) configured to vaporize the liquid composition to generate an aerosol, wherein the atomization assembly comprises two or more vibrating assemblies (915A;915B), at least one of which is in fluid communication with the reservoir , wherein each vibrating assembly (915A;915B) includes a mesh plate, characterised in that the mesh plates are substantially non-coplanar, and wherein there are two vibrating assemblies (915A;915B), wherein the opening is offset from the center of the device, and wherein each of the mesh plates of the vibrating assemblies defines an acute angle with respect to a portion of the exit aerosol path proximate the opening .
Acore member configured for a gapped core of a current sensor , said core member including a gap forming region (C) configured for forming a gap therein having a width smaller than the width of the gap forming region (C), the core member comprising: an annular core main body having an opening in which a bus bar is disposable; a resin mold portion that entirely or partially covers the core main body , the resin mold portion covering at least a portion of the gap forming region (C); and a resin bridge portion whose both ends are continuously connected to the resin mold portion , and that is formed between an inner circumference side of the core main body and the bus bar opening , the resin bridge portion including a void that is formed at a position opposing the gap forming region (C), and extends through the core member in a thickness direction of the core member between the bus bar opening and the core main body , the resin bridge portion and the void having a length in a direction extending along the annular direction of the core main body greater than the width of the gap to be formed. an annular core main body having an opening in which a bus bar is disposable; a resin mold portion that entirely or partially covers the core main body , the resin mold portion covering at least a portion of the gap forming region (C); and a resin bridge portion whose both ends are continuously connected to the resin mold portion , and that is formed between an inner circumference side of the core main body and the bus bar opening , the resin bridge portion including a void that is formed at a position opposing the gap forming region (C), and extends through the core member in a thickness direction of the core member between the bus bar opening and the core main body , the resin bridge portion and the void having a length in a direction extending along the annular direction of the core main body greater than the width of the gap to be formed.
A method for indicating spatial relation information, performed by a base station, the method comprising: sending , by the base station, indication information for Physical Uplink Control Channel, PUCCH, spatial relation information to a terminal, wherein the indication information is sent in a medium access control layer control element, MAC CE, comprising three Octets, the spatial relation information indicated by the indication information is applied to at least two PUCCH resources of the terminal; characterized in that the indication information carries spatial relation information for activation/deactivation of a spatial relation of the PUCCH resources in 8 bits in the third Octet but does not carry any PUCCH resource identifier in the second Octet, and the spatial relation information for activation/deactivation that is included in the 8 bits in the third Octet is used for all PUCCH resources configured for the terminal. sending , by the base station, indication information for Physical Uplink Control Channel, PUCCH, spatial relation information to a terminal, wherein the indication information is sent in a medium access control layer control element, MAC CE, comprising three Octets, the spatial relation information indicated by the indication information is applied to at least two PUCCH resources of the terminal; characterized in that the indication information carries spatial relation information for activation/deactivation of a spatial relation of the PUCCH resources in 8 bits in the third Octet but does not carry any PUCCH resource identifier in the second Octet, and the spatial relation information for activation/deactivation that is included in the 8 bits in the third Octet is used for all PUCCH resources configured for the terminal.
A powered fastener driver comprising: a first cylinder ; a first piston positioned within the first cylinder, the first piston being moveable between a top-dead-center position and at or near a bottom-dead-center position; a second cylinder in fluid communication with the first cylinder; a second piston positioned within the second cylinder, the second piston being moveable between a top-dead-center position and a bottom-dead-center position to initiate a fastener driving cycle; a drive blade coupled to the second piston for movement therewith; and a drive mechanism configured to drive the first piston between the top-dead-center position and at or near the bottom-dead-center position, characterized in that the drive mechanism includes a crank arm configured to rotate less than 360 degrees, °, for moving the first piston from at or near the bottom-dead-center position and the top-dead-center position and then back to at or near the bottom-dead-center position to complete the fastener driving cycle. a first cylinder ; a first piston positioned within the first cylinder, the first piston being moveable between a top-dead-center position and at or near a bottom-dead-center position; a second cylinder in fluid communication with the first cylinder; a second piston positioned within the second cylinder, the second piston being moveable between a top-dead-center position and a bottom-dead-center position to initiate a fastener driving cycle; a drive blade coupled to the second piston for movement therewith; and a drive mechanism configured to drive the first piston between the top-dead-center position and at or near the bottom-dead-center position,
A warehouse for the storage and handling, in particular of weapons, for a ship such as a submarine, comprising elongated modules for receiving the weapons , means for launching them and characterized in that it comprises means in the form of a launch compensation bladder intended to receive a weight of water corresponding at least in part to the weight of the launched weapon in order to compensate for this launch.
Device for controlling the blowing fluid flow during the blow molding of containers from preforms, comprising a proportional valve having a modifiable flow cross section, an actuator for actuating the proportional valve, a means for detecting the position of the actuator , sensor means for detecting the valve inlet and valve outlet pressure and a digital control apparatus , characterized in that the control apparatus is programmed to calculate cyclically, in a manner automated to the runtime, control values for the actuation of the actuator such that a specified container volume is reached within a specified time period, during the pre-blowing phase once a specifiable point in time (t 3 ) is reached, which point in time corresponds to the yield point of the preform being reached, the calculation of the next control value in each case being performed in each calculation cycle such that the container volume which is reached by the relevant calculation cycle and can be calculated on the basis of the previous actuator positions and the previous pressure curve is taken into account.
An information determination method, comprising: determining a reference point of a starting symbol for a time domain resource allocation of a physical downlink shared channel, PDSCH, in a downlink control information, DCI, in a DCI format for scheduling a traffic channel according to a traffic channel mapping type, wherein the reference point comprises: a slot boundary and a physical downlink control channel, PDCCH, related symbol, wherein the traffic channel mapping type is among a set of traffic channel mapping types comprising a Type A and a Type B; determining a time domain resource allocation, TDRA, table with the PDCCH related symbol that serves as the reference point to be used in the DCI format to be added to the DCI, wherein the DCI is associated with the PDCCH related symbol, and the DCI format comprises a DCI format 1_2 for scheduling the PDSCH, characterised in that a DCI size alignment operation is performed when the DCI format is added to the DCI and comprises: a size of DCI format 0_0 and a size of DCI format 1_0 are aligned; a size of DCI format 0_1 and a size of DCI format 1_1 are aligned; and a size of DCI format 0_2 and a size of DCI format 1_2 are aligned. determining a reference point of a starting symbol for a time domain resource allocation of a physical downlink shared channel, PDSCH, in a downlink control information, DCI, in a DCI format for scheduling a traffic channel according to a traffic channel mapping type, wherein the reference point comprises: a slot boundary and a physical downlink control channel, PDCCH, related symbol, wherein the traffic channel mapping type is among a set of traffic channel mapping types comprising a Type A and a Type B; determining a time domain resource allocation, TDRA, table with the PDCCH related symbol that serves as the reference point to be used in the DCI format to be added to the DCI, wherein the DCI is associated with the PDCCH related symbol, and the DCI format comprises a DCI format 1_2 for scheduling the PDSCH, characterised in that a DCI size alignment operation is performed when the DCI format is added to the DCI and comprises: a size of DCI format 0_0 and a size of DCI format 1_0 are aligned; a size of DCI format 0_1 and a size of DCI format 1_1 are aligned; and a size of DCI format 0_2 and a size of DCI format 1_2 are aligned. a size of DCI format 0_0 and a size of DCI format 1_0 are aligned; a size of DCI format 0_1 and a size of DCI format 1_1 are aligned; and a size of DCI format 0_2 and a size of DCI format 1_2 are aligned.
A nasal interface comprising: an elongate body comprising: one or more facial pads or wings and at least one lumen extending at least partially through the body, the body configured to be coupled to a gases flow source, wherein the one or more facial pads or wings are configured to be spaced symmetrically about the sagittal plane of a user in use, and one or more prongs coupled to the body and in fluid communication with the at least one lumen, wherein at least one element is located adjacent to and outside of the one or more prongs , and characterised in that the element(s) are pre-formed in a convex shape outward from the user's face in use. an elongate body comprising: one or more facial pads or wings and at least one lumen extending at least partially through the body, the body configured to be coupled to a gases flow source, wherein the one or more facial pads or wings are configured to be spaced symmetrically about the sagittal plane of a user in use, and one or more prongs coupled to the body and in fluid communication with the at least one lumen, wherein at least one element is located adjacent to and outside of the one or more prongs , and characterised in that the element(s) are pre-formed in a convex shape outward from the user's face in use.
A vane assembly for distribution of a stratified fluid in an aircraft , the stratified fluid comprising a first portion and a second portion , the vane assembly comprising: a housing , wherein the housing optionally has a substantially cylindrical configuration, comprising a housing inlet and a housing outlet , the housing inlet configured to receive the stratified fluid, the housing outlet spaced from the housing inlet and configured to exhaust the stratified fluid, and the housing defining an interior housing volume between the housing inlet and the housing outlet ; and a vane disposed within the interior housing volume and bisecting the interior housing volume , the vane comprising a leading edge adjacent the housing inlet and a trailing edge adjacent the housing outlet, the vane having a first side and a second side opposite the first side , the first side and the second side extending between the leading edge and the trailing edge , and the trailing edge angularly offset from the leading edge relative to the first side and the second side ; wherein the first side is configured to direct the first portion between the housing inlet and the housing outlet and the second side is configured to direct the second portion between the housing inlet and the housing outlet , and wherein the vane is configured to inhibit the first portion and the second portion from mixing. a housing , wherein the housing optionally has a substantially cylindrical configuration, comprising a housing inlet and a housing outlet , the housing inlet configured to receive the stratified fluid, the housing outlet spaced from the housing inlet and configured to exhaust the stratified fluid, and the housing defining an interior housing volume between the housing inlet and the housing outlet ; and a vane disposed within the interior housing volume and bisecting the interior housing volume , the vane comprising a leading edge adjacent the housing inlet and a trailing edge adjacent the housing outlet, the vane having a first side and a second side opposite the first side , the first side and the second side extending between the leading edge and the trailing edge , and the trailing edge angularly offset from the leading edge relative to the first side and the second side ; wherein the first side is configured to direct the first portion between the housing inlet and the housing outlet and the second side is configured to direct the second portion between the housing inlet and the housing outlet , and wherein the vane is configured to inhibit the first portion and the second portion from mixing.
A method for data relaying in a relay station, comprising: receiving information about a relay transmission and reception subframe from a base station; signaling to a terminal that the relay transmission and reception subframe is an MBSFN (Multicast Broadcast Single Frequency Network) subframe; and receiving data from the base station during the relay transmission and reception subframe, wherein the relay transmission and reception subframe includes a predetermined period for transmitting a cell specific reference signal or a control signal to the terminal and a remaining period for receiving the data from the base station. receiving information about a relay transmission and reception subframe from a base station; signaling to a terminal that the relay transmission and reception subframe is an MBSFN (Multicast Broadcast Single Frequency Network) subframe; and receiving data from the base station during the relay transmission and reception subframe, wherein the relay transmission and reception subframe includes a predetermined period for transmitting a cell specific reference signal or a control signal to the terminal and a remaining period for receiving the data from the base station.
A system for monitoring and remotely controlling a state of charge of at least one battery pack , comprising the at least one battery pack for an electrical appliance , which battery pack comprises a communication device , which is adapted to transfer state of charge data of the battery pack to a server device of the system , which server device is adapted to transfer the state of charge data to at least one user interface of the system , which user interface is adapted to visualize the state of charge data of the battery pack , wherein the user interface is additionally adapted to transfer control data for controlling a charging device to the server device depending on a user input, which server device is adapted to transfer the control data to the communication device integrated in the battery pack , which communication device is adapted to transfer the control data for a charging operation of the battery pack to the charging device , wherein the server device is adapted to transfer a request for charging the battery pack to the user interface depending on deadline entries in an electronic calendar of a person, which user interface is adapted to visualize this request.
A manufacturing line for manufacturing layered products , comprising a plurality of manufacturing stations disposed along a transportation track of a transportation system , the plurality of manufacturing stations including a number of layer dispensing stations , the transportation system comprising a plurality of product holders that are each arranged to be moved individually along the transportation track to visit manufacturing stations along the transportation track , which product holders are arranged to hold a stack of layers , characterised in that the transportation track includes a loop and a router , and in that the router is arranged to route product holders to revisit manufacturing stations via the loop in the transportation track .