mhurhangee/ep-ind-claims huggingface dataset:
A tamper evident container (10, 100) comprising: a substrate (20, 120) defining an outer face (22, 122) and an oppositely directed inner face (24, 124); a cover layer disposed on the substrate (20, 120), the cover layer defining an outer face and an oppositely directed inner face, the cover layer and the substrate (20, 120) being sealed to one another in at least one sealing region to thereby define an initially sealed interior region, the cover layer and the substrate (20, 120) defining a peripheral edge extending about at least a portion of an outer perimeter of the container (10, 100), the cover layer defining at least one line (40, 140) of weakened material extending between a first region of the edge to a second region of the edge and proximate the interior region, the at least one sealing region extending between the at least one line of weakened material and the interior region, characterized in that the cover layer and the substrate (20, 120) further define a sealing-free region co-extensive with the at least one line of weakened material, wherein the cover layer includes a release layer. a substrate (20, 120) defining an outer face (22, 122) and an oppositely directed inner face (24, 124); a cover layer disposed on the substrate (20, 120), the cover layer defining an outer face and an oppositely directed inner face, the cover layer and the substrate (20, 120) being sealed to one another in at least one sealing region to thereby define an initially sealed interior region, the cover layer and the substrate (20, 120) defining a peripheral edge extending about at least a portion of an outer perimeter of the container (10, 100), the cover layer defining at least one line (40, 140) of weakened material extending between a first region of the edge to a second region of the edge and proximate the interior region, the at least one sealing region extending between the at least one line of weakened material and the interior region, the cover layer and the substrate (20, 120) further define a sealing-free region co-extensive with the at least one line of weakened material,
An inkjet print head assembly, wherein the inkjet print head assembly comprises • a MEMS-manufactured inkjet chip provided with a number of ejection units, each ejection unit comprising a nozzle for ejecting a droplet of liquid and a liquid supply port for receiving liquid in the ejection unit, wherein the nozzles are arranged in a first chip surface of the inkjet chip and the liquid supply ports are arranged in a second chip surface, the second chip surface being opposite to the first chip surface; • a print head base element having a liquid supply recess, the inkjet chip being arranged on the print head base element over the liquid supply recess, the second chip surface facing the liquid supply recess such that the liquid supply ports are in fluid communication with the liquid supply recess; and • a damper element, the damper element comprising a closed hollow space with a flexible wall, characterized in that the damper element being mounted on the print head base element free of the second chip surface and being arranged in the liquid supply recess, wherein the flexible wall faces the liquid supply ports arranged in the second chip surface, the flexible wall beingarranged at a predetermined damper distance from the second chip surface. • a MEMS-manufactured inkjet chip provided with a number of ejection units, each ejection unit comprising a nozzle for ejecting a droplet of liquid and a liquid supply port for receiving liquid in the ejection unit, wherein the nozzles are arranged in a first chip surface of the inkjet chip and the liquid supply ports are arranged in a second chip surface, the second chip surface being opposite to the first chip surface; • a print head base element having a liquid supply recess, the inkjet chip being arranged on the print head base element over the liquid supply recess, the second chip surface facing the liquid supply recess such that the liquid supply ports are in fluid communication with the liquid supply recess; and • a damper element, the damper element comprising a closed hollow space with a flexible wall,
A surgical retrieval apparatus for receipt of multiple tissue specimens, suitable for insertion into a body cavity of a patient, the surgical retrieval apparatus comprising: a collection bag including first and second packets (316, 320), each packet having an outer portion and an inner portion, the first and second packets defining first and second adjacent chambers, each chamber configured for receipt of a tissue specimen therein; a support ring, the first and second packets coupled to the support ring; and a flip ring pivotably coupled to the support ring, the first and second packets coupled to the flip ring, the flip ring rotatable relative to the support ring between a first position, wherein the first chamber is accessible for depositing a tissue specimen therein, and a second position, wherein the second chamber is accessible for depositing a tissue specimen therein. a collection bag including first and second packets (316, 320), each packet having an outer portion and an inner portion, the first and second packets defining first and second adjacent chambers, each chamber configured for receipt of a tissue specimen therein; a support ring, the first and second packets coupled to the support ring; and a flip ring pivotably coupled to the support ring, the first and second packets coupled to the flip ring, the flip ring rotatable relative to the support ring between a first position, wherein the first chamber is accessible for depositing a tissue specimen therein, and a second position, wherein the second chamber is accessible for depositing a tissue specimen therein.
A method for manufacturing a generally circular, oval or rectangular sealing ring for an acoustic device (1; 1'), said sealing ring being configured to rest against the head of a user during use; wherein said method comprises: - forming, in an injection molding step, a covering being generally U-shaped in cross-section, said covering being formed by a thermoplastic elastomer material; - forming, in a further injection molding step, two generally loop-shaped elements (11, 12) of which one element has less circumference than the other element; said elements (11, 12) being formed by a material of any of the types polypropylene, acrylonitrile butadiene styrene or polyamide; - connecting said loop-shaped elements (11; 12) to said covering; and - attaching the end sections (9a, 9b) of said covering to a support element, thereby attaching said support element between said loop-shaped elements (11, 12). - forming, in an injection molding step, a covering being generally U-shaped in cross-section, said covering being formed by a thermoplastic elastomer material; - forming, in a further injection molding step, two generally loop-shaped elements (11, 12) of which one element has less circumference than the other element; said elements (11, 12) being formed by a material of any of the types polypropylene, acrylonitrile butadiene styrene or polyamide; - connecting said loop-shaped elements (11; 12) to said covering; and - attaching the end sections (9a, 9b) of said covering to a support element, thereby attaching said support element between said loop-shaped elements (11, 12).
A discharge lamp lighting apparatus comprising: a discharge lamp having a pair of electrodes (14, 15) formed of tungsten formed respectively with projections at distal ends thereof; and a power supply apparatus configured to supply AC power to the discharge lamp, wherein the power supply apparatus has a function to light the discharge lamp by switching the mode between a first lighting mode in which rated power is supplied to the discharge lamp and a second lighting mode in which power lower than the rated power is supplied to the discharge lamp, and is configured to supply the AC power having a power waveform in which a low-frequency component having a frequency lower than a basic frequency component is cyclically inserted into the basic frequency component to the discharge lamp, said basic frequency component being selected from a range from 60 to 1000 Hz, characterized in that the power supply apparatus is configured to control power to be supplied to the discharge lamp under the condition of an average power change ratio of 0.01 to 2.1 W/s in a mode switching time period during which the mode is switched from the first lighting mode to the second lighting mode. a discharge lamp having a pair of electrodes (14, 15) formed of tungsten formed respectively with projections at distal ends thereof; and a power supply apparatus configured to supply AC power to the discharge lamp, wherein the power supply apparatus has a function to light the discharge lamp by switching the mode between a first lighting mode in which rated power is supplied to the discharge lamp and a second lighting mode in which power lower than the rated power is supplied to the discharge lamp, and is configured to supply the AC power having a power waveform in which a low-frequency component having a frequency lower than a basic frequency component is cyclically inserted into the basic frequency component to the discharge lamp, said basic frequency component being selected from a range from 60 to 1000 Hz, characterized in that the power supply apparatus is configured to control power to be supplied to the discharge lamp under the condition of an average power change ratio of 0.01 to 2.1 W/s in a mode switching time period during which the mode is switched from the first lighting mode to the second lighting mode.
A method of fabricating a component for a gas turbine engine, the method comprising: forming one or more grooves in an outer surface of a substrate, wherein each of the one or more grooves has a base and extends at least partially along the surface of the substrate; depositing a sacrificial filler within the one or more grooves; depositing a second filler over the sacrificial filler and within the one or more grooves; disposing a coating over at least a portion of the outer surface of the substrate and over the second filler; and removing the sacrificial filler and removing a portion of the second filler from the one or more grooves, characterised in that at least a portion of the second filler remains within the one or more grooves to define one or more channels for cooling the component. forming one or more grooves in an outer surface of a substrate, wherein each of the one or more grooves has a base and extends at least partially along the surface of the substrate; depositing a sacrificial filler within the one or more grooves; depositing a second filler over the sacrificial filler and within the one or more grooves; disposing a coating over at least a portion of the outer surface of the substrate and over the second filler; and removing the sacrificial filler and removing a portion of the second filler from the one or more grooves, characterised in that at least a portion of the second filler remains within the one or more grooves to define one or more channels for cooling the component.
A computing device, comprising: two or more compute nodes, each compute node including two or more processor cores, each compute node comprising an independently coherent domain that is not coherent with other compute nodes; a central IO die communicatively coupled to each of the two or more compute nodes; and characterised in that the computing device further comprises: a plurality of natively-attached volatile memory units attached to the central IO die via one or more memory controllers, wherein the central IO die includes one or more home agents for each compute node, the home agents configured to map memory access requests received from the compute nodes to one or more addresses within the natively-attached volatile memory units. two or more compute nodes, each compute node including two or more processor cores, each compute node comprising an independently coherent domain that is not coherent with other compute nodes; a central IO die communicatively coupled to each of the two or more compute nodes; and characterised in that the computing device further comprises: a plurality of natively-attached volatile memory units attached to the central IO die via one or more memory controllers, wherein the central IO die includes one or more home agents for each compute node, the home agents configured to map memory access requests received from the compute nodes to one or more addresses within the natively-attached volatile memory units.
A method of queue prioritization for a public electric vehicle charging station, the method comprising: providing remote access to a queue for the public electric vehicle charging station (110, 400), the queue defining an order for electric vehicles to be charged at the public electric vehicle charging station (110, 400); receiving a plurality of requests to utilize the electric vehicle charging station (110, 400), wherein the requests originate from a plurality of vehicle operators, wherein the vehicles of the corresponding vehicle operators have not yet arrived at the electric vehicle charging station (110, 400); entering those requests into the queue; prioritizing the queue based upon parameters (720, 900) determined by an operator of the public electric vehicle charging station (110, 400); notifying a vehicle operator of a vehicle not having yet arrived at the charging station of their position at the top of the queue; thereafter, J Z detecting a presence of said vehicle being at the top of the queue at the electric vehicle charging station (110, 400), wherein said vehicle is the vehicle of the vehicle operator being notified; and enabling the public electric vehicle charging station (110, 400) to begin charging said vehicle operated by the vehicle operator upon confirmation that the vehicle is present at the public electric vehicle charging station (110, 400). providing remote access to a queue for the public electric vehicle charging station (110, 400), the queue defining an order for electric vehicles to be charged at the public electric vehicle charging station (110, 400); receiving a plurality of requests to utilize the electric vehicle charging station (110, 400), wherein the requests originate from a plurality of vehicle operators, wherein the vehicles of the corresponding vehicle operators have not yet arrived at the electric vehicle charging station (110, 400); entering those requests into the queue; prioritizing the queue based upon parameters (720, 900) determined by an operator of the public electric vehicle charging station (110, 400); notifying a vehicle operator of a vehicle not having yet arrived at the charging station of their position at the top of the queue; thereafter, J Z detecting a presence of said vehicle being at the top of the queue at the electric vehicle charging station (110, 400), wherein said vehicle is the vehicle of the vehicle operator being notified; and enabling the public electric vehicle charging station (110, 400) to begin charging said vehicle operated by the vehicle operator upon confirmation that the vehicle is present at the public electric vehicle charging station (110, 400).
Device for monitoring an electric unit (19, 20) or installation comprising at least one monitoring module having a connector for connecting at least one input or one output, said monitoring module comprising at least one internal switch circuit connected to said at least one input or output, characterized in that it comprises a hub comprising input/output connectors (10, 10A, 10B, 10C) for connecting inputs/outputs to said at least one monitoring module (1, 2, 3, 38), processing means for processing information from said inputs/outputs, and a communication circuit for communicating data relating to said inputs/outputs, said processing circuit being able to process or report states of each of the inputs/outputs of said hub, at least one monitoring module (1, 2) being associated with a modular electric unit (19, 20) for transmitting states of said electric unit to the hub or for receiving actuation commands for actuating said electric unit from said hub, said input/output connectors (10, 10A, 10B, 10C) of said hub being intended to be connected to a connector (4A, 4B, 4C) of at least one monitoring module (1, 2, 3, 38) by means of a link comprising a reference line, a power supply line, and at least one input line (15, 16) or output line.
A handheld tool for stabilizing a fractured bone, the handheld tool having a proximal end and a distal end, the handheld tool including: a housing (106a, 106b); at least one bone pin configured to be driven into the fractured bone to stabilize the fractured bone; a cartridge supported by the housing (106a, 106b) and including at least one passageway that receives the bone pin, the passageway sized to accommodate axial movement of the bone pin through the passageway while limiting radial movement of the bone pin in the passageway; a piston that translates axially relative to the housing (106a, 106b), the piston including a head arranged toward the proximal end of the handheld tool and a needle arranged toward the distal end of the handheld tool, the needle sized for receipt within the passageway of the cartridge, the needle applying sufficient force to the bone pin to drive the bone pin axially from the cartridge and into the fractured bone; and a pressurized gas source supported by the housing (106a, 106b) for supplying a pneumatic force to the head of the piston to axially translate the piston relative to the housing (106a, 106b); wherein the piston translates from a rest position to a fired position under the pneumatic force, the housing (106a, 106b) defining a vent located between the head of the piston in the rest position and the head of the piston in the fired position, the vent directing pressurized gas downwardly through a handle of the handheld tool. a housing (106a, 106b); at least one bone pin configured to be driven into the fractured bone to stabilize the fractured bone; a cartridge supported by the housing (106a, 106b) and including at least one passageway that receives the bone pin, the passageway sized to accommodate axial movement of the bone pin through the passageway while limiting radial movement of the bone pin in the passageway; a piston that translates axially relative to the housing (106a, 106b), the piston including a head arranged toward the proximal end of the handheld tool and a needle arranged toward the distal end of the handheld tool, the needle sized for receipt within the passageway of the cartridge, the needle applying sufficient force to the bone pin to drive the bone pin axially from the cartridge and into the fractured bone; and a pressurized gas source supported by the housing (106a, 106b) for supplying a pneumatic force to the head of the piston to axially translate the piston relative to the housing (106a, 106b); wherein the piston translates from a rest position to a fired position under the pneumatic force, the housing (106a, 106b) defining a vent located between the head of the piston in the rest position and the head of the piston in the fired position, the vent directing pressurized gas downwardly through a handle of the handheld tool.
A polishing machine comprising a cooling and suction system for polishing heads for polishing, for example by smoothing, lapping or the like, of ceramic manufactured items, or of natural stones, which advance according to a given advancement direction, comprising at least one polishing head, rotating around one substantially vertical rotation axis and being provided with a plurality of tools, and the polishing machine being provided with cooling and suction means (13, 14, 15) in order to cool work zones and suction dusts generated by the polishing process, characterized in that it comprises first cooling and suction means arranged around each polishing head, second cooling and suction means arranged around the perimeter of the work zone of the ceramic manufactured items, or of the natural stones, and third cooling means arranged in the center and/or inside each polishing head.
A method of distributing data relating to a threat-detection system, the method including: receiving an initialisation request from a central monitoring system, the initialisation request including a client identifier and client data location information relevant to a client site monitored by the central monitoring system, said initialisation request being relevant to a particular threat detected at the client site; in response to receiving the initialisation request, generating a respond site code and storing the respond site code with the client identifier and client data location information as a respond site record in a data storage; transmitting the respond site code to the central monitoring system; receiving a verification request from a responder device, the verification request including a respond site code; verifying that the respond site code corresponds to a respond site code in the data storage; and provided that the respond site code exists, transmitting the client data location information associated with the respond site code to the responder device. receiving an initialisation request from a central monitoring system, the initialisation request including a client identifier and client data location information relevant to a client site monitored by the central monitoring system, said initialisation request being relevant to a particular threat detected at the client site; in response to receiving the initialisation request, generating a respond site code and storing the respond site code with the client identifier and client data location information as a respond site record in a data storage; transmitting the respond site code to the central monitoring system; receiving a verification request from a responder device, the verification request including a respond site code; verifying that the respond site code corresponds to a respond site code in the data storage; and provided that the respond site code exists, transmitting the client data location information associated with the respond site code to the responder device.
A communication method, comprising: receiving, by a terminal device, configuration information sent by a network device, wherein the configuration information comprises attribute information of each logical channel, and the attribute information of the logical channel is used to indicate reliability and/or a communication range of the logical channel; receiving, by the terminal device, scheduling information sent by the network device, wherein the scheduling information is used to indicate a transmission resource of the sidelink, the scheduling information further comprises attribute information of the transmission resource, and the attribute information of the transmission resource is used to indicate reliability and/or a communication range corresponding to the transmission resource; and selecting, by the terminal device, a matched logical channel for the transmission resource based on the attribute information of the transmission resource and the attribute information of each logical channel. receiving, by a terminal device, configuration information sent by a network device, wherein the configuration information comprises attribute information of each logical channel, and the attribute information of the logical channel is used to indicate reliability and/or a communication range of the logical channel; receiving, by the terminal device, scheduling information sent by the network device, wherein the scheduling information is used to indicate a transmission resource of the sidelink, the scheduling information further comprises attribute information of the transmission resource, and the attribute information of the transmission resource is used to indicate reliability and/or a communication range corresponding to the transmission resource; and selecting, by the terminal device, a matched logical channel for the transmission resource based on the attribute information of the transmission resource and the attribute information of each logical channel.