mhurhangee/ep-ind-claims huggingface dataset:
An in vitro process of detecting norovirus in a sample comprising: producing an amplification product by amplifying a norovirus nucleotide sequence using a forward primer that hybridizes to a norovirus nucleotide sequence, and a reverse primer that hybridizes to a region within the norovirus nucleotide sequence, under conditions suitable for a polymerase chain reaction; and detecting said amplification product to detect the norovirus in the sample using a first probe consisting of a fluorescent label, a quencher and a nucleic acid sequence consisting of SEQ ID NO: 3. producing an amplification product by amplifying a norovirus nucleotide sequence using a forward primer that hybridizes to a norovirus nucleotide sequence, and a reverse primer that hybridizes to a region within the norovirus nucleotide sequence, under conditions suitable for a polymerase chain reaction; and detecting said amplification product to detect the norovirus in the sample using a first probe consisting of a fluorescent label, a quencher and a nucleic acid sequence consisting of SEQ ID NO: 3.
A method comprising: receiving, at a user device, from a server, one or more firmware update packets, wherein the one or more firmware update packets are encrypted by a lock key; transmitting, by the user device, a user profile to a locking device comprising a physical locking component and circuitry configured to control locking and unlocking of the physical locking component, wherein the user profile comprises a user key; decrypting, by the locking device, the user profile to generate a decrypted user profile, where the user profile is decrypted using the lock key; generating, by the user device, an encrypted firmware update command, the encrypted firmware update command encrypted using the user key of the user profile; transmitting, by the user device, the encrypted firmware update command and the encrypted firmware update packets to the locking device; decrypting, by the locking device, the encrypted firmware command using the user key and the encrypted firmware update packets using the lock key; and installing, by the locking device, the decrypted firmware update responsive to successfully decrypting the encrypted firmware update command and the encrypted firmware update packets. receiving, at a user device, from a server, one or more firmware update packets, wherein the one or more firmware update packets are encrypted by a lock key; transmitting, by the user device, a user profile to a locking device comprising a physical locking component and circuitry configured to control locking and unlocking of the physical locking component, wherein the user profile comprises a user key; decrypting, by the locking device, the user profile to generate a decrypted user profile, where the user profile is decrypted using the lock key; generating, by the user device, an encrypted firmware update command, the encrypted firmware update command encrypted using the user key of the user profile; transmitting, by the user device, the encrypted firmware update command and the encrypted firmware update packets to the locking device; decrypting, by the locking device, the encrypted firmware command using the user key and the encrypted firmware update packets using the lock key; and installing, by the locking device, the decrypted firmware update responsive to successfully decrypting the encrypted firmware update command and the encrypted firmware update packets.
A cap assembly for a drug delivery device comprising: - a cap body to protect and to receive a distal dispensing end (14; 50) of the drug delivery device, and comprising a cup-shaped receptacle having at least a first interconnection member at a proximal end thereof to provide a first interconnection with a housing component (12, 14; 50) of the drug delivery device, - an interlock member (24; 40) operably engaged with the cap body and comprising a second interconnection member (38; 46) to releasably engage with a distal end section of the device's dispensing end (14; 50) to provide a safety lock for the cap body, wherein - the interlock member (24; 40) comprises an inner sleeve (36; 44) extending axially inwardly in proximal direction from a distal end of the cap body, with the second interconnection member (38; 46) disposed at a proximal portion of the inner sleeve (36, 44), - wherein the second interconnection member (38; 46) is threadedly engageable or positively interlockable with the distal end section, characterized in that - the cap body and the interlock member (24; 40) comprise mutually corresponding and radially extending stop elements (28, 30, 32, 34) to restrict relative axial displacement of cap body and interlock member (24; 40) and for the interlock member (24; 40) to exert proximally directed holding forces to the cap body via the stop elements (28, 30, 32, 34). - a cap body to protect and to receive a distal dispensing end (14; 50) of the drug delivery device, and comprising a cup-shaped receptacle having at least a first interconnection member at a proximal end thereof to provide a first interconnection with a housing component (12, 14; 50) of the drug delivery device, - an interlock member (24; 40) operably engaged with the cap body and comprising a second interconnection member (38; 46) to releasably engage with a distal end section of the device's dispensing end (14; 50) to provide a safety lock for the cap body, wherein - the interlock member (24; 40) comprises an inner sleeve (36; 44) extending axially inwardly in proximal direction from a distal end of the cap body, with the second interconnection member (38; 46) disposed at a proximal portion of the inner sleeve (36, 44), - wherein the second interconnection member (38; 46) is threadedly engageable or positively interlockable with the distal end section, characterized in that - the cap body and the interlock member (24; 40) comprise mutually corresponding and radially extending stop elements (28, 30, 32, 34) to restrict relative axial displacement of cap body and interlock member (24; 40) and for the interlock member (24; 40) to exert proximally directed holding forces to the cap body via the stop elements (28, 30, 32, 34).
A program code execution behavior monitoring method, comprising: executing, by a computer device in a virtual execution environment, first code corresponding to first program code, wherein the first code belongs to external code, the virtual execution environment is a running environment provided based on a virtualization technology, the external code is code, other than internal code, invoked in the first program code, the external code comprises system code provided by an operating system of the computer device, and the internal code is code of a process generated by the first program code; in a process in which the computer device executes the first code, if second code belongs to the internal code, before execution of the second code is completed, switching, by the computer device, an execution environment of the first program code to a simulated execution environment, wherein the simulated execution environment is a running environment provided based on a simulator, and the second code is to-be-executed code; and executing, by the computer device, the second code in the simulated execution environment. executing, by a computer device in a virtual execution environment, first code corresponding to first program code, wherein the first code belongs to external code, the virtual execution environment is a running environment provided based on a virtualization technology, the external code is code, other than internal code, invoked in the first program code, the external code comprises system code provided by an operating system of the computer device, and the internal code is code of a process generated by the first program code; in a process in which the computer device executes the first code, if second code belongs to the internal code, before execution of the second code is completed, switching, by the computer device, an execution environment of the first program code to a simulated execution environment, wherein the simulated execution environment is a running environment provided based on a simulator, and the second code is to-be-executed code; and executing, by the computer device, the second code in the simulated execution environment.
A device for closing a left atrial appendage comprising: an elongate body; a retention member defining a loop with an aperture therethrough; a closure loop housed within the retention member and at least partially housed within the elongate body, wherein the closure loop is configured to encircle the left atrial appendage; and a suture loop housed within the retention member and at least partially housed within the elongate body, wherein the suture loop is configured to secure the left atrial appendage, wherein the closure loop and the suture loop are separately actuatable. an elongate body; a retention member defining a loop with an aperture therethrough; a closure loop housed within the retention member and at least partially housed within the elongate body, wherein the closure loop is configured to encircle the left atrial appendage; and a suture loop housed within the retention member and at least partially housed within the elongate body, wherein the suture loop is configured to secure the left atrial appendage, wherein the closure loop and the suture loop are separately actuatable.
Device for storing cryogenic fluids comprising a container comprising an inner casing intended to contain cryogenic liquid, an outer casing and a vacuum isolation space between the inner and outer casings, a system (3, 4) for distributing fluid from the inner casing to a work volume of a pumping member, with the work volume of the pumping member being located at least partially in the vacuum isolation space, with the system (3, 4) for distributing fluid comprising one or several conduits able to place in permanent fluidic communication the fluid contained in the inner casing and the work volume, characterised in that the system (3, 4) for distributing fluid comprises a thermosiphon comprising a fluid inlet conduit and a fluid return conduit each connected to the inner casing and to the work volume, the connections of the inlet and return conduits in the work volume being located at different altitudes in order to create a determined level of liquid filling in the work volume.
A powered stapling device (201502, 201531, 201610, 201800), comprising: a circular stapling head assembly (201506, 201610, 201802); an anvil (201514, 201544, 201612, 201804); a trocar (201510, 201540, 201904) coupled to the anvil and coupled to a motor, wherein the motor in configured to advance and retract the trocar; a control circuit (710, 760) coupled to the motor, characterized in that the control circuit is configured to: determine a position of the trocar in one of a plurality of zones; and set an anvil closure rate based on the determined position of the trocar, wherein the control circuit is further configured to: determine the closure rate of the trocar; determine the closure rate of the anvil; compare the closure rate of the trocar to the closure rate of the anvil to determine a difference between the closure rate of the trocar to the closure rate of the anvil; and at a difference greater than a predetermined value, extend and retract the trocar to reset the anvil. a circular stapling head assembly (201506, 201610, 201802); an anvil (201514, 201544, 201612, 201804); a trocar (201510, 201540, 201904) coupled to the anvil and coupled to a motor, wherein the motor in configured to advance and retract the trocar; a control circuit (710, 760) coupled to the motor, characterized in that the control circuit is configured to: determine a position of the trocar in one of a plurality of zones; and set an anvil closure rate based on the determined position of the trocar, determine a position of the trocar in one of a plurality of zones; and set an anvil closure rate based on the determined position of the trocar, wherein the control circuit is further configured to: determine the closure rate of the trocar; determine the closure rate of the anvil; compare the closure rate of the trocar to the closure rate of the anvil to determine a difference between the closure rate of the trocar to the closure rate of the anvil; and at a difference greater than a predetermined value, extend and retract the trocar to reset the anvil. determine the closure rate of the trocar; determine the closure rate of the anvil; compare the closure rate of the trocar to the closure rate of the anvil to determine a difference between the closure rate of the trocar to the closure rate of the anvil; and at a difference greater than a predetermined value, extend and retract the trocar to reset the anvil.
A method of emptying trays filled with rod-shaped articles of the tobacco industry, the method comprising the following steps: trays designated for emptying are conveyed to an input area of a hopper containing adjacent channels separated by dividers; rod-shaped articles are transferred from the trays to the channels of the hopper using support plates; the channels of the hopper are filled with the rod-shaped articles; the support plates are retracted from the channels of the hopper; the channels of the hopper are successively emptied into a chute adapted to move between channel outlets of the hopper; the rod-shaped articles are transferred from the channels of the hopper and through the chute onto the discharge conveyor moving towards the receiving device; during emptying at least one channel of the hopper, the hopper moves linearly in the direction opposite to the direction in which the rod-shaped articles are transported by the discharge conveyor; and after the channel has been completely emptied, the hopper moves in the direction concurrent with the direction in which the rod-shaped articles are transported by the discharge conveyor, until it achieves a position in which the outlet of the next channel filled with rod-shaped articles is aligned with the inlet of the chute, whereas the hopper moves at a variable velocity while moving in the direction concurrent with the direction in which the rod-shaped articles are transported by the discharge conveyor, and the chute, in order to empty the rod-shaped articles from at least one channel of the hopper, moves linearly in the direction opposite to the direction in which the rod-shaped articles are transported by the discharge conveyor, until all the rod-shaped articles have been emptied from the channel, characterized in that while the hopper is moving in the direction concurrent with the direction in which the rod-shaped articles are transported by the discharge conveyor, the hopper moves at a first velocity, and after receiving a signal from the accumulation sensor that rod-shaped articles have accumulated near the inlet of the chute, the hopper moves at at least one second velocity, whereas the second velocity is lower than the first velocity, before it achieves a position in which the outlet of the next channel filled with rod-shaped articles is aligned with the inlet of the chute. trays designated for emptying are conveyed to an input area of a hopper containing adjacent channels separated by dividers; rod-shaped articles are transferred from the trays to the channels of the hopper using support plates; the channels of the hopper are filled with the rod-shaped articles; the support plates are retracted from the channels of the hopper; the channels of the hopper are successively emptied into a chute adapted to move between channel outlets of the hopper; the rod-shaped articles are transferred from the channels of the hopper and through the chute onto the discharge conveyor moving towards the receiving device;
An injection molding machine, comprising: a drive unit (160, 540) which is configured to move a movable mold close to or away from a stationary mold and to move an intermediate mold disposed between the movable mold and the stationary mold close to or away from the stationary mold; a movement processing unit which is configured to control a movement of the movable mold and a movement of the intermediate mold; a distance monitoring unit which is configured to monitor a distance between the movable mold and the intermediate mold when both the movable mold and the intermediate mold are moved in the same direction, wherein the movement processing unit is configured to execute a collision avoidance processing when both the movable mold and the intermediate mold are moved in the same direction such that a collision between the molds is avoided, characterized in that said collision avoidance processing is based on the monitored distance between the movable mold and the intermediate mold; the injection molding machine includes a collision avoidance processing necessity determination unit which determines necessity of the collision avoidance processing by the movement processing unit and which is configured to determine that the collision avoidance processing is unnecessary if the stage of the mold closing process reaches the final stage and/or if the stage of the mold opening process reaches the initial stage. a drive unit (160, 540) which is configured to move a movable mold close to or away from a stationary mold and to move an intermediate mold disposed between the movable mold and the stationary mold close to or away from the stationary mold; a movement processing unit which is configured to control a movement of the movable mold and a movement of the intermediate mold; a distance monitoring unit which is configured to monitor a distance between the movable mold and the intermediate mold when both the movable mold and the intermediate mold are moved in the same direction, wherein the movement processing unit is configured to execute a collision avoidance processing when both the movable mold and the intermediate mold are moved in the same direction such that a collision between the molds is avoided, characterized in that said collision avoidance processing is based on the monitored distance between the movable mold and the intermediate mold; the injection molding machine includes a collision avoidance processing necessity determination unit which determines necessity of the collision avoidance processing by the movement processing unit and which is configured to determine that the collision avoidance processing is unnecessary if the stage of the mold closing process reaches the final stage and/or if the stage of the mold opening process reaches the initial stage.
An axial flux electric machine with a winding rotor comprising a stator section and a rotor section, which both develop around a rotation axis of the electric machine, the rotor section comprising a rotor, which, in turn, comprises: - a rotor core with a toroidal shape, which develops around the axis and has at least one receiving surface with an annular shape; - a plurality of teeth, which are arranged in contact with said receiving surface and extend away from the receiving surface along said axis, each one of said teeth having a first tangential surface facing the axis and a second tangential surface opposite to said first tangential surface; - a plurality of windings, which are angularly distributed around said axis and cooperate with said rotor core and said teeth so as to concatenate a magnetic flux through the rotor core and the teeth, - a resin matrix that binds together said toroidal core and said teeth; wherein at least one of said teeth has, on at one of said tangential surfaces (4c, 4d), a shaped profile defining at least one holding surface, which faces away from the toroidal rotor core, wherein the resin matrix engages said holding surface and the core, to stably lock the tooth on the core. - a rotor core with a toroidal shape, which develops around the axis and has at least one receiving surface with an annular shape; - a plurality of teeth, which are arranged in contact with said receiving surface and extend away from the receiving surface along said axis, each one of said teeth having a first tangential surface facing the axis and a second tangential surface opposite to said first tangential surface; - a plurality of windings, which are angularly distributed around said axis and cooperate with said rotor core and said teeth so as to concatenate a magnetic flux through the rotor core and the teeth, - a resin matrix that binds together said toroidal core and said teeth;
A composite resin molded article comprising: a base resin; and a fibrous filler dispersed in the base resin, the fibrous filler including a bending portion having a bending angle defined as an angle between the one end side and the other end side of the fibrous filler, characterized in that the bending angle is 90 degrees or larger when determined by SEM observation in accordance with the method indicated in the description and in that the fiber diameter of a thinnest portion of the fibrous filler is 1/500 to 2/3 of the fiber diameter of a thickest portion thereof. a base resin; and a fibrous filler dispersed in the base resin, the fibrous filler including a bending portion having a bending angle defined as an angle between the one end side and the other end side of the fibrous filler, characterized in that the bending angle is 90 degrees or larger when determined by SEM observation in accordance with the method indicated in the description and in that the fiber diameter of a thinnest portion of the fibrous filler is 1/500 to 2/3 of the fiber diameter of a thickest portion thereof.
A method comprising: receiving, by a first gateway device (110A; 205; 500) among a plurality of gateway devices (110A-D), an ingress packet from an Ethernet interface intended for a queue in a memory fabric (120; 290), wherein the plurality of gateway devices (110A-D) are coupled with the memory fabric (120; 290) and a plurality of server processors (130A-C); determining, by the first gateway device (110A; 205; 500), a memory queue identifier corresponding to the ingress packet, wherein the memory queue identifier uniquely identifies a queue at a second gateway device; and executing a memory write command to deliver the ingress packet to the queue at the second gateway device bypassing the plurality of server processors (130A-C). receiving, by a first gateway device (110A; 205; 500) among a plurality of gateway devices (110A-D), an ingress packet from an Ethernet interface intended for a queue in a memory fabric (120; 290), wherein the plurality of gateway devices (110A-D) are coupled with the memory fabric (120; 290) and a plurality of server processors (130A-C); determining, by the first gateway device (110A; 205; 500), a memory queue identifier corresponding to the ingress packet, wherein the memory queue identifier uniquely identifies a queue at a second gateway device; and executing a memory write command to deliver the ingress packet to the queue at the second gateway device bypassing the plurality of server processors (130A-C).