mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a Mobility Management Entity (MME) for handling user equipment, UE, capability information of a UE in a mobile telecommunications network comprising at least one UE holding UE capabilities and at least one eNodeB , wherein the method comprises the steps of: - receiving , from the eNodeB , a first message (Md) comprising UE capability information of the UE, - storing the received UE capability information, - receiving , from the eNodeB , a second message (Ma) comprising information indicative of that the UE capabilities have changed, - erasing the stored UE capability information, the method being characterised in that : - sending in response to the second message a third message (Mb) associated with the stored UE capability information to the eNodeB, whereby the first message (Md) comprises a value tag indicating the version of the comprised UE capability information and the method comprises the step of: - storing the value tag, and the second message (Ma) comprises the value tag indicating the version of the UE capability information of the UE, and the third message (Mb) comprises the stored UE capability information and the stored value tag. - receiving , from the eNodeB , a first message (Md) comprising UE capability information of the UE, - storing the received UE capability information, - receiving , from the eNodeB , a second message (Ma) comprising information indicative of that the UE capabilities have changed, - erasing the stored UE capability information, - sending in response to the second message a third message (Mb) associated with the stored UE capability information to the eNodeB, whereby the first message (Md) comprises a value tag indicating the version of the comprised UE capability information and the method comprises the step of: - storing the value tag, and the second message (Ma) comprises the value tag indicating the version of the UE capability information of the UE, and the third message (Mb) comprises the stored UE capability information and the stored value tag.
An apparatus for processing metallic bodies by plastic deformation, which comprises a supporting framework for a carousel that can rotate intermittently about a main rotation axis and defines a plurality of supporting seats for respective metallic bodies to be processed fed to said carousel by way of a feeder device, a front table being provided which can move with an alternating translational motion along a direction that is substantially parallel to said main rotation axis of said carousel , said front table supporting a plurality of processing stations that are designed to engage sequentially the metallic bodies supported by said carousel , an actuation motor being provided for moving said front table and connecting means being provided between an actuation shaft , supported so that it can rotate by said supporting framework , and said front table , said connecting means being adapted to convert the rotation of said actuation shaft into alternating translational motion of said front table , wherein said actuation motor is constantly engaged with said actuation shaft characterized in that said actuation shaft rotates integrally with at least one counterweight .
A handrail disinfecting device , comprising at least one housing and a plurality of light-emitting diodes having a main light cone axis , which light-emitting diodes can emit germicidal electromagnetic radiation in the region of their light cone , wherein the housing has an entry side and an exit side opposite the entry side for a continuous handrail of a passenger transport installation , • wherein a pass-through segment for the handrail , which segment is divided into at least two sectors , is present in the housing between the entry side and the exit side ; • wherein the sectors are arranged one behind the other in the longitudinal extension of the pass-through segment ; • wherein at least one light-emitting diode is arranged in the first sector , the main light cone axis of which diode is oriented substantially orthogonally to a first plane ; and • wherein at least two light-emitting diodes are arranged in the second sector , wherein the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a second plane and the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a third plane , and wherein the second plane and the third plane are arranged in parallel with the longitudinal extension of the pass-through segment and so as to be mutually inclined at an angle (α) of 100° to 160°, characterized in that the handrail disinfecting device has at least one guide roller , by means of which guide roller a handrail of a passenger transport installation can be guided through the housing in the pass-through segment in a defined position in relation to the light-emitting diodes . • wherein a pass-through segment for the handrail , which segment is divided into at least two sectors , is present in the housing between the entry side and the exit side ; • wherein the sectors are arranged one behind the other in the longitudinal extension of the pass-through segment ; • wherein at least one light-emitting diode is arranged in the first sector , the main light cone axis of which diode is oriented substantially orthogonally to a first plane ; and • wherein at least two light-emitting diodes are arranged in the second sector , wherein the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a second plane and the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a third plane , and
A method of operating a terminal device, the method comprising: operating the terminal device in a connected state with respect to the communication network; and receiving a first signal from a first radio access node in the communication network indicating that the connected state is to be suspended, the first signal comprising information for use in determining a first key for encrypting data to be sent between the terminal device and the first radio access node or another radio access node in the communication network if the connected state is resumed, the first signal further comprising an identifier for the terminal device to be used by the terminal device when requesting the resumption of the connected state. operating the terminal device in a connected state with respect to the communication network; and receiving a first signal from a first radio access node in the communication network indicating that the connected state is to be suspended, the first signal comprising information for use in determining a first key for encrypting data to be sent between the terminal device and the first radio access node or another radio access node in the communication network if the connected state is resumed, the first signal further comprising an identifier for the terminal device to be used by the terminal device when requesting the resumption of the connected state.
A liquid detection device to detect and provide an indication of liquid contamination in a pneumatic supply , the device comprising: a housing ; an electronic liquid sensor carried by the housing and configured to be coupled to a pneumatic supply and to detect the presence of liquid in the pneumatic supply; and a wireless communicator carried by the housing and configured to transmit data from the electronic liquid sensor to a communication node on a plant computer network, wherein the electronic liquid sensor comprises a water sensor configured to detect the presence and/or amount of water in the pneumatic supply, detection circuitry connected to the water sensor and configured to detect the presence and/or amount of water detected by the water sensor, a battery configured to power the electronic liquid sensor, power circuitry configured to control a supply of power to the detection circuitry and the wireless communicator, and wherein the water sensor is disposed in a first portion of the housing exposed to the pneumatic supply and the detection circuitry, the power circuitry, the battery, and the wireless communicator are disposed in at least one other area of the housing fluidly sealed from the first portion of the housing. a housing ; an electronic liquid sensor carried by the housing and configured to be coupled to a pneumatic supply and to detect the presence of liquid in the pneumatic supply; and a wireless communicator carried by the housing and configured to transmit data from the electronic liquid sensor to a communication node on a plant computer network, wherein the electronic liquid sensor comprises a water sensor configured to detect the presence and/or amount of water in the pneumatic supply, detection circuitry connected to the water sensor and configured to detect the presence and/or amount of water detected by the water sensor, a battery configured to power the electronic liquid sensor, power circuitry configured to control a supply of power to the detection circuitry and the wireless communicator, and wherein the water sensor is disposed in a first portion of the housing exposed to the pneumatic supply and the detection circuitry, the power circuitry, the battery, and the wireless communicator are disposed in at least one other area of the housing fluidly sealed from the first portion of the housing.
Process for producing monoaromatic hydrocarbons from a hydrocarbon feed comprising polyaromatics, the process comprising contacting the feed in the presence of hydrogen with a M/A/zeolite catalyst at a pressure of ambient-40 bara, a temperature of 350-500 °C, a WHSV of 0.1-10 h -1 and a H 2 /HC ratio of 1-20, wherein said M/A/zeolite catalyst comprises: 0.05-2.5 wt-% of element M, wherein said element M is one or more elements selected from Group 10 of the Periodic Table of Elements; 0.05-1 wt-% of element A, wherein said element A is one or more elements selected from Group 1 and 2 of the Periodic Table of Elements; and an aluminosilicate zeolite having a pore size of 6-8 Å and a SiO 2 /Al 2 O 3 ratio of 1-45, and wherein the hydrocarbon feed comprises at least 30 wt-% polyaromatic hydrocarbons. 0.05-2.5 wt-% of element M, wherein said element M is one or more elements selected from Group 10 of the Periodic Table of Elements; 0.05-1 wt-% of element A, wherein said element A is one or more elements selected from Group 1 and 2 of the Periodic Table of Elements; and an aluminosilicate zeolite having a pore size of 6-8 Å and a SiO 2 /Al 2 O 3 ratio of 1-45, and wherein the hydrocarbon feed comprises at least 30 wt-% polyaromatic hydrocarbons.
Can closure for insertion into a can lid of a can, having a) a pouring opening for pouring liquid from the can, b) an outer closure part which, in the assembled state, is located outside the can and is inserted into a can opening in the can lid , c) an inner closure part which, in the assembled state, is joined to the outer closure part and is supported from below on the can lid and is located inside the can, d) a tamper-evident element which closes the pouring opening in the original state and can be broken open for pouring in order to release the pouring opening , and e) a pressure bulkhead which closes the pouring opening on the inside of the tamper-evident element and thereby keeps the internal can pressure (p) away from the tamper-evident element , wherein the pressure bulkhead can be broken open for pouring to release the pouring opening , characterized in that the outer closure part comprises: f) a lower closure part which, in the assembled state, is inserted into a can opening in the can lid , the pouring opening extending through the lower closure part and the inner closure part and the outer closure part , and g) an upper closure part which is pivotably connected to the lower closure part , the pouring opening extending through the upper closure part and the upper closure part being pivotable from a delivery position into a position of use. a) a pouring opening for pouring liquid from the can, b) an outer closure part which, in the assembled state, is located outside the can and is inserted into a can opening in the can lid , c) an inner closure part which, in the assembled state, is joined to the outer closure part and is supported from below on the can lid and is located inside the can, d) a tamper-evident element which closes the pouring opening in the original state and can be broken open for pouring in order to release the pouring opening , and e) a pressure bulkhead which closes the pouring opening on the inside of the tamper-evident element and thereby keeps the internal can pressure (p) away from the tamper-evident element , wherein the pressure bulkhead can be broken open for pouring to release the pouring opening , f) a lower closure part which, in the assembled state, is inserted into a can opening in the can lid , the pouring opening extending through the lower closure part and the inner closure part and the outer closure part , and g) an upper closure part which is pivotably connected to the lower closure part , the pouring opening extending through the upper closure part and the upper closure part being pivotable from a delivery position into a position of use.
A computer-implemented method for manipulating a 3D object in a 3D scene of a computer-aided design system, the method comprising the steps of : a) Displaying a 3D object having a center of rotation in the 3D scene on a screen; b) displaying in the 3D scene a rotation manipulator (RM) having three areas (RA1, RA2, RA3) perpendicular to each other, the rotation manipulator (RM) being attached to the cursor (C), thereby following it on the screen until the position of the rotation manipulator (RM) is locked, each area (RA1, RA2, RA3) corresponding to a rotation plane; c) activating the rotation manipulator by locking its location on the screen on an initial press point (PP); d) selecting one rotation plane by displacing the cursor (C) to the area (RA1, RA2, RA3) corresponding to said plane; and e) performing a rotation manipulation according to the displacement of the cursor (C) on the screen. a) Displaying a 3D object having a center of rotation in the 3D scene on a screen; b) displaying in the 3D scene a rotation manipulator (RM) having three areas (RA1, RA2, RA3) perpendicular to each other, the rotation manipulator (RM) being attached to the cursor (C), thereby following it on the screen until the position of the rotation manipulator (RM) is locked, each area (RA1, RA2, RA3) corresponding to a rotation plane; c) activating the rotation manipulator by locking its location on the screen on an initial press point (PP); d) selecting one rotation plane by displacing the cursor (C) to the area (RA1, RA2, RA3) corresponding to said plane; and e) performing a rotation manipulation according to the displacement of the cursor (C) on the screen.
A method for manufacturing a probe protruding from a cantilever , comprising the step of: dipping the cantilever made of a semiconductor, the cantilever having a part coated with a first metal and having another part not coated with the first metal from which a needle-shaped body protrudes, into a solution containing ions of a second metal and not containing a reducing agent for reducing the ions of the second metal, to manufacture a probe in which structures of the second metal are precipitated at a tip end of the needle-shaped body , wherein a Fermi level of the first metal is higher than a Fermi level of the semiconductor, and a Fermi level of the solution is lower than the Fermi level of the semiconductor. dipping the cantilever made of a semiconductor, the cantilever having a part coated with a first metal and having another part not coated with the first metal from which a needle-shaped body protrudes, into a solution containing ions of a second metal and not containing a reducing agent for reducing the ions of the second metal, to manufacture a probe in which structures of the second metal are precipitated at a tip end of the needle-shaped body , wherein a Fermi level of the first metal is higher than a Fermi level of the semiconductor, and a Fermi level of the solution is lower than the Fermi level of the semiconductor.
A method of transferring discrete articles from a pick-up location to a drop-off location , the method comprising: providing a transfer device having a frame defining a rotation axis , wherein the transfer device comprises a plurality of transfer heads ; circumnavigating the plurality of transfer heads about the rotation axis in an orbit, wherein the orbit passes through the pick-up location and the drop-off location ; using one of the plurality of transfer heads to pick up a discrete article at the pick-up location ; carrying the discrete article on the one of the plurality of transfer heads between the pick-up location and the drop-off location ; providing a web accumulation device proximate to the drop-off location wherein the web accumulation device is configured to vary the speed of a web configured to receive a portion of a discrete article upstream and downstream of the drop-off location of the transfer device , while matching or substantially matching the web speed with the speed of the transfer head carrying the discrete article in the drop-off location ; moving the web through the web accumulation device at variable speed; and placing the discrete article onto a portion of the web in the drop-off location at a first discrete article pitch and when the portion of the web is moving at a first speed. providing a transfer device having a frame defining a rotation axis , wherein the transfer device comprises a plurality of transfer heads ; circumnavigating the plurality of transfer heads about the rotation axis in an orbit, wherein the orbit passes through the pick-up location and the drop-off location ; using one of the plurality of transfer heads to pick up a discrete article at the pick-up location ; carrying the discrete article on the one of the plurality of transfer heads between the pick-up location and the drop-off location ; providing a web accumulation device proximate to the drop-off location wherein the web accumulation device is configured to vary the speed of a web configured to receive a portion of a discrete article upstream and downstream of the drop-off location of the transfer device , while matching or substantially matching the web speed with the speed of the transfer head carrying the discrete article in the drop-off location ; moving the web through the web accumulation device at variable speed; and placing the discrete article onto a portion of the web in the drop-off location at a first discrete article pitch and when the portion of the web is moving at a first speed.
A system for generating and maintaining a plasma in a magnetic field with a field reversed configuration (FRC) comprising: a confinement chamber having a mid-plane, first and second diametrically opposed FRC formation sections coupled to the confinement chamber, first and second divertors coupled to the first and second formation sections, a plurality of neutral atom beam injectors coupled to the confinement chamber and oriented toward the mid-plane of the confinement chamber, a magnetic system coupled to the confinement chamber, the first and second formation sections, and the first and second divertors, and characterized in that the system further comprises: first and second compact toroid, CT, injectors coupled to the confinement chamber at an angle towards the mid-plane of the confinement chamber, wherein the first and second CT injectors are on opposing sides of the mid-plane of the confinement chamber. a confinement chamber having a mid-plane, first and second diametrically opposed FRC formation sections coupled to the confinement chamber, first and second divertors coupled to the first and second formation sections, a plurality of neutral atom beam injectors coupled to the confinement chamber and oriented toward the mid-plane of the confinement chamber, a magnetic system coupled to the confinement chamber, the first and second formation sections, and the first and second divertors, and characterized in that the system further comprises: first and second compact toroid, CT, injectors coupled to the confinement chamber at an angle towards the mid-plane of the confinement chamber, wherein the first and second CT injectors are on opposing sides of the mid-plane of the confinement chamber.
An apparatus comprising: an implantable auditory prosthesis comprising an implantable magnet and a first proximity sensor (S1), wherein the implantable auditory prosthesis comprises a first operational mode and a second operational mode; and an external control element configured to communicate with the implantable auditory prosthesis , wherein the external control element comprises an external magnet , and wherein the implantable auditory prosthesis operates in the first operational mode when the external magnet is engaged with the implantable magnet , and wherein the implantable auditory prosthesis operates in the second operational mode when the external magnet is disengaged from the implantable magnet and the first proximity sensor (S1) detects a presence of the external magnet , wherein the implantable auditory prosthesis further comprises a second proximity sensor (S2), and wherein the presence of the external magnet is characterized by a first signal received at the first proximity sensor (S1) being stronger than a second signal received at the second proximity sensor (S2). an implantable auditory prosthesis comprising an implantable magnet and a first proximity sensor (S1), wherein the implantable auditory prosthesis comprises a first operational mode and a second operational mode; and an external control element configured to communicate with the implantable auditory prosthesis , wherein the external control element comprises an external magnet , and wherein the implantable auditory prosthesis operates in the first operational mode when the external magnet is engaged with the implantable magnet , and wherein the implantable auditory prosthesis operates in the second operational mode when the external magnet is disengaged from the implantable magnet and the first proximity sensor (S1) detects a presence of the external magnet , wherein the implantable auditory prosthesis further comprises a second proximity sensor (S2), and wherein the presence of the external magnet is characterized by a first signal received at the first proximity sensor (S1) being stronger than a second signal received at the second proximity sensor (S2).