mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus of a User Equipment UE configured as a Proximity Services ProSe enabled UE, the apparatus comprising: processing circuitry to configure the UE to perform a ProSe Direct Discovery process, wherein as part of the ProSe Direct Discovery process, the processing circuitry is configured to: encode, for transmission over a PC 3 interface to a ProSe Function in a Home Public Land Mobile Network HPLMN a discovery request message for an announcing procedure, the announcing procedure including transmission of one or more announcements over a PC5 interface, wherein the discovery request message for the announcing procedure includes a PC5 technology PC5_tech parameter to indicate whether each of two or more PC5 radio technologies are to be used by the UE for the announcing procedure, and wherein the two or more PC5 radio technologies include at least Evolved Universal Terrestrial Radio Access E-UTRA and wireless local area network WLAN and decode a discovery response message for the announcing procedure, the discovery response message for the announcing procedure received over the PC3 interface from the ProSe Function in the HPLMN, wherein the discovery response message for the announcing procedure includes a ProSe application code and the PC5 tech parameter to indicate a PC5 radio technology authorized to be used for the ProSe application code, wherein the ProSe application code corresponds to a ProSe application ID parameter contained in the discovery request message for the announcing procedure; and memory configured to store the ProSe application code. encode, for transmission over a PC 3 interface to a ProSe Function in a Home Public Land Mobile Network HPLMN a discovery request message for an announcing procedure, the announcing procedure including transmission of one or more announcements over a PC5 interface, wherein the discovery request message for the announcing procedure includes a PC5 technology PC5_tech parameter to indicate whether each of two or more PC5 radio technologies are to be used by the UE for the announcing procedure, and wherein the two or more PC5 radio technologies include at least Evolved Universal Terrestrial Radio Access E-UTRA and wireless local area network WLAN and decode a discovery response message for the announcing procedure, the discovery response message for the announcing procedure received over the PC3 interface from the ProSe Function in the HPLMN, wherein the discovery response message for the announcing procedure includes a ProSe application code and the PC5 tech parameter to indicate a PC5 radio technology authorized to be used for the ProSe application code, wherein the ProSe application code corresponds to a ProSe application ID parameter contained in the discovery request message for the announcing procedure; and memory configured to store the ProSe application code.
A bridge abutment made of reinforced concrete having a base plate , an abutment wall , and at least one wing wall , which comprises at least one wing wall element formed as a precast concrete part having a precast concrete part reinforcement , wherein the abutment wall is formed at least partially by in-situ concrete having an abutment wall reinforcement , characterized in that the precast concrete part forms a part of a formwork of the abutment wall and the precast concrete part reinforcement at least partially forms the abutment wall reinforcement and/or is connected via at least one connecting attachment to the abutment wall reinforcement and the base plate is at least partially formed by in-situ concrete having a base plate reinforcement , wherein the precast concrete part forms a part of a formwork of the base plate and the precast concrete part reinforcement at least partially forms the base plate reinforcement and/or is connected to the base plate reinforcement via at least one connecting attachment .
Method of manufacturing a dental prosthesis , intended to be connected directly or indirectly to a dental implant, wherein said dental prosthesis includes an angled inner through bore , characterized in that it comprises the steps of: a) obtaining a main body of a dental prosthesis , wherein said main body is provided with a first end intended to be oriented towards a dental implant and a second end opposite to said first end ; b) drilling a first hole in said first end in a first direction ; c) milling and widening an intermediate area of said first hole , thus obtaining a widened area ; d) drilling a second hole in said second end in a second direction that forms an angle other than zero with the first direction , with said second hole extending to the first hole ; and e) laterally milling and widening an inner end of the first hole that protrudes from the second hole to form an elbow . a) obtaining a main body of a dental prosthesis , wherein said main body is provided with a first end intended to be oriented towards a dental implant and a second end opposite to said first end ; b) drilling a first hole in said first end in a first direction ; c) milling and widening an intermediate area of said first hole , thus obtaining a widened area ; d) drilling a second hole in said second end in a second direction that forms an angle other than zero with the first direction , with said second hole extending to the first hole ; and e) laterally milling and widening an inner end of the first hole that protrudes from the second hole to form an elbow .
A system for sharing a power delivery controller , comprising: a plurality of ports ; and the power delivery controller communicatively coupled to the plurality of ports , and the power delivery controller is to: rotate between the plurality of ports to determine a port of the plurality of ports that has access to the power delivery controller , including to: (a) send a first message to a first port of the plurality of ports ; (b) remain connected to the first port and enable power delivery to the first port for a period of time in response to a return message from the first port; and (c) if there is no predetermined return message from the first port or on expiry of the period of time, rotate to a second port of the plurality of ports and repeat (a) to (c) with the second port as the first port. a plurality of ports ; and the power delivery controller communicatively coupled to the plurality of ports , and the power delivery controller is to: rotate between the plurality of ports to determine a port of the plurality of ports that has access to the power delivery controller , including to: (a) send a first message to a first port of the plurality of ports ; (b) remain connected to the first port and enable power delivery to the first port for a period of time in response to a return message from the first port; and (c) if there is no predetermined return message from the first port or on expiry of the period of time, rotate to a second port of the plurality of ports and repeat (a) to (c) with the second port as the first port. (a) send a first message to a first port of the plurality of ports ; (b) remain connected to the first port and enable power delivery to the first port for a period of time in response to a return message from the first port; and (c) if there is no predetermined return message from the first port or on expiry of the period of time, rotate to a second port of the plurality of ports and repeat (a) to (c) with the second port as the first port.
An additive manufacturing system comprising: a build platform ; a plurality of particles positioned on said build platform defining a build layer ; a first region within said build layer and a second region within said build layer , said first region and said second region each including a portion of said plurality of particles ; and at least one consolidation device configured to consolidate said plurality of particles within said build layer into a solid, consolidated portion of said build layer , wherein said at least one consolidation device is further configured to consolidate at least one of said plurality of particles within said build layer and said solid, consolidated portion of said build layer into a molten volume of transfer material, said at least one consolidation device is further configured to transfer a portion of said molten volume of transfer material within said first region from said first region to said second region by repetitively directing an energy beam from said first region to said second region along a laser melting track to repetitively re-melt said portion of said molten volume of transfer material along said laser melting track, wherein said at least one consolidation device is further configured to control the position of the energy beam in a complex oscillation pattern including a combination of frequency components superimposed on each other or in a circular pattern superimposed on itself and repeated along a length of the laser melting track along the laser melting track . a build platform ; a plurality of particles positioned on said build platform defining a build layer ; a first region within said build layer and a second region within said build layer , said first region and said second region each including a portion of said plurality of particles ; and at least one consolidation device configured to consolidate said plurality of particles within said build layer into a solid, consolidated portion of said build layer , wherein said at least one consolidation device is further configured to consolidate at least one of said plurality of particles within said build layer and said solid, consolidated portion of said build layer into a molten volume of transfer material, said at least one consolidation device is further configured to transfer a portion of said molten volume of transfer material within said first region from said first region to said second region by repetitively directing an energy beam from said first region to said second region along a laser melting track to repetitively re-melt said portion of said molten volume of transfer material along said laser melting track, wherein said at least one consolidation device is further configured to control the position of the energy beam in a complex oscillation pattern including a combination of frequency components superimposed on each other or in a circular pattern superimposed on itself and repeated along a length of the laser melting track along the laser melting track .
Device for connecting furniture parts, in particular furniture parts of an item of upholstered furniture, comprising a first connecting fitting having a first part which can be fixed to a first furniture part and a second part which can be fixed to a second furniture part , as well as a second connecting fitting having a first part which can be fixed to the first furniture part and a second part which can be fixed to the second furniture part , wherein the first part of the second connecting fitting comprises a receptacle for a bearing edge of the second part of the second connecting fitting and the second part is pivotable in an angular range around the bearing edge relative to the first part , wherein a guide surface is provided on the first part of the first connecting fitting , which guide surface contacts the second part of the first connecting fitting with a sliding surface during pivoting and additionally displaces the second part in translation relative to the first part , and the first part has a locking element at the end of the guide surface , on which locking element the second part can be locked against pivoting characterized in that the translational displacement takes place at least partially perpendicular to the radial direction with respect to a pivot axis formed by the bearing edge .
A locking arrangement for securing electric module cards between two side walls of a housing , the locking arrangement comprising: - two side members for fixed arrangement with the respective side walls ; - an opening for accommodating electric contacts of the electric module cards defined between the side members ; - a first and a second transverse member configured to form a frame with the side members in order to lock the electric module cards within the housing ; and - at least one locking mechanism configured to detachably connect at least one of the transverse members to at least one of the side members by means of a snap-fit. - two side members for fixed arrangement with the respective side walls ; - an opening for accommodating electric contacts of the electric module cards defined between the side members ; - a first and a second transverse member configured to form a frame with the side members in order to lock the electric module cards within the housing ; and - at least one locking mechanism configured to detachably connect at least one of the transverse members to at least one of the side members by means of a snap-fit.
A method for managing an application state of an application, comprising: maintaining , by an application state manager, a list of relative timers associated with processes associated with an application, wherein each relative timer of the list of timers has an expiration time; upon receiving a notification that the application is to be placed into a suspend state, creating, by the application state manager, an application state comprising a value for each relative timer of the list of relative timers, wherein the value indicates a time span from when the relative timer is suspended to the expiration time of the relative timer; and upon receiving a notification that the application is to be placed into an execution state from the suspend state, creating, by the application state manager, rebased relative timers for the application, wherein each of the rebased relative timers is created for the application by applying one of the values in the application state indicating the time span for respectively one of the relative timers in the list of relative timers. maintaining , by an application state manager, a list of relative timers associated with processes associated with an application, wherein each relative timer of the list of timers has an expiration time; upon receiving a notification that the application is to be placed into a suspend state, creating, by the application state manager, an application state comprising a value for each relative timer of the list of relative timers, wherein the value indicates a time span from when the relative timer is suspended to the expiration time of the relative timer; and upon receiving a notification that the application is to be placed into an execution state from the suspend state, creating, by the application state manager, rebased relative timers for the application, wherein each of the rebased relative timers is created for the application by applying one of the values in the application state indicating the time span for respectively one of the relative timers in the list of relative timers.
A support for temporary guard railing comprising: a base adapted to be removably attached to a floor surface, said base having an upper surface , a lower surface , and corner areas ; support walls upstanding from the base and defining therebetween an upwardly opening socket for receipt of a post ; at least one hole extending through each of said corner areas for receipt of a connector so as to attach the base to the floor surface; characterized in that the at least one hole has a washer assembly , wherein said washer assembly comprises: • a plurality of fingers integrally formed with said base and projecting from said upper surface of said base , said fingers being circumferentially spaced around said hole , each of said fingers comprising a radially inwardly extending dog , there being a notch formed between each of said dogs and said upper surface of said base ; • a washer received in said plurality of notches, such that the opening of said washer is in register with said hole , wherein said fingers are elastically connected to said base and wherein a groove is positioned around the fingers extending into the top surface of the base . a base adapted to be removably attached to a floor surface, said base having an upper surface , a lower surface , and corner areas ; support walls upstanding from the base and defining therebetween an upwardly opening socket for receipt of a post ; at least one hole extending through each of said corner areas for receipt of a connector so as to attach the base to the floor surface; characterized in that the at least one hole has a washer assembly , wherein said washer assembly comprises: • a plurality of fingers integrally formed with said base and projecting from said upper surface of said base , said fingers being circumferentially spaced around said hole , each of said fingers comprising a radially inwardly extending dog , there being a notch formed between each of said dogs and said upper surface of said base ; • a washer received in said plurality of notches, such that the opening of said washer is in register with said hole , wherein said fingers are elastically connected to said base and wherein a groove is positioned around the fingers extending into the top surface of the base . • a plurality of fingers integrally formed with said base and projecting from said upper surface of said base , said fingers being circumferentially spaced around said hole , each of said fingers comprising a radially inwardly extending dog , there being a notch formed between each of said dogs and said upper surface of said base ; • a washer received in said plurality of notches, such that the opening of said washer is in register with said hole , wherein said fingers are elastically connected to said base and wherein a groove is positioned around the fingers extending into the top surface of the base .
A direct current arc extinguishing apparatus comprising a direct current arc extinguishing circuit, the arc extinguishing circuit wherein a mechanical switch (K1, K2, K3) requiring arc extinguishing is connected in series with a load (RL1, RL2, RL3), comprising a voltage detection switch (A) and a capacitor (C1), wherein the voltage detection switch (A) comprises a power semiconductor device (TR1, SCR1, SCR2, SCR3), the power semiconductor device (TR1, SCR1, SCR2, SCR3) is connected with the capacitor (C1), the capacitor (C1) and the power semiconductor device (TR1, SCR1, SCR2, SCR3) form a first series circuit, characterized in that the first series circuit is connected in parallel with the mechanical switch (K1, K2, K3), the voltage detection switch (A) is connected with the connection node of the mechanical switch (K1, K2, K3) and the load (RL1, RL2, RL3), and a voltage signal of the connection node of the mechanical switch (K1, K2, K3) and the load (RL1, RL2, RL3) being transmitted to the voltage detection switch (A), and the direct current arc extinguishing circuit is configured for when breaking the mechanical switch (K1, K2, K3), the power semiconductor device (TR1, SCR1, SCR2, SCR3) is turned on when a potential difference across the mechanical switch (K1, K2, K3) is greater than 5V and less than the working voltage interval of the mechanical switch (K1, K2, K3); a current passes through the power semiconductor device (TR1, SCR1, SCR2, SCR3) and the load (RL1, RL2, RL3), and is used for breaking arc extinguishing of the mechanical switch (K1, K2, K3), with the current being a charging current of the capacitor (C1).
A semiconductor wafer of monocrystalline silicon having a center, an edge and a radius R between the center and the edge, the semiconductor wafer comprising an oxygen concentration of not less than 4.9 x 10 17 atoms/cm 3 and not more than 5.85 x 10 17 atoms/cm 3 ; a nitrogen concentration of not less than 5 x 10 12 atoms/cm 3 and not more than 1.0 x 10 14 atoms/cm 3 ; a hydrogen concentration of not less than 3 x 10 13 atoms/cm 3 and not more than 8 x 10 13 atoms/cm 3 ; BMD nuclei whose density averaged over the radius of the wafer, as determined by IR tomography, is not less than 1 x 10 5 cm -3 and not more than 1 x 10 7 cm -3 ; Surface defects whose longest diagonal is greater than 5 μm and whose density averaged over the radius is not less than 1100 cm -2 as determined by optical microscopy after heat treatments of the semiconductor wafer at a temperature of 900 °C for a period of 8 h in an atmosphere of nitrogen and at a temperature of 1100 °C for a period of 2 h in an atmosphere of oxygen and hydrogen; and BMDs whose density is not less than a lower limit of 5 x 10 8 /cm 3 , determined along the radius from a radial position r = R/3 to a radial position r = R/1.15 by IR tomography after heat treatment of the semiconductor wafer at a temperature of 780 °C for a period of 3 h and at a temperature of 1000 °C for a period of 16 h where the hydrogen concentration, the average density of the BMD nuclei, the average density of the surface defects and the density of the BMDs are determined by the measuring methods specified in the description.
A system for demodulating a first message in a first frequency band, a second message in a second frequency band, and a third message in a third frequency band, wherein the first, second, and third frequency bands are non-overlapping bands, the system being characterized by : at least two antennas configured to receive signals encoding the first, second, and third messages; a set of splitters configured to generate separate signals in the first, second, and third frequency bands; a set of combiners , wherein each combiner of the set of combiners is configured to combine two or more of the separate signals; a set of mixers configured to down-convert the combined signals; at least one analog-to-digital converter, ADC, configured to sample the down-converted signals; and processing circuitry configured to determine data in the first, second, and third messages based on an output of the at least one ADC. at least two antennas configured to receive signals encoding the first, second, and third messages; a set of splitters configured to generate separate signals in the first, second, and third frequency bands; a set of combiners , wherein each combiner of the set of combiners is configured to combine two or more of the separate signals; a set of mixers configured to down-convert the combined signals; at least one analog-to-digital converter, ADC, configured to sample the down-converted signals; and processing circuitry configured to determine data in the first, second, and third messages based on an output of the at least one ADC.
A method of operating a polyolefin reactor system, comprising: feeding a chromium-based catalyst substantially continuously through a mix vessel to a polymerization reactor, wherein the mix vessel includes an interior sidewall and a nozzle having a neck; adding a reducing agent to contact the chromium-based catalyst through the mix vessel to the polymerization reactor, wherein the reducing agent is added to the chromium-based catalyst in the mix vessel through an entrance arrangement having a conduit extension or a conduit that extends into the mix vessel through the neck of the nozzle on the mix vessel and directs the reducing agent away from the interior sidewall of the mix vessel; and polymerizing an olefin into a polyolefin in the polymerization reactor in presence of the chromium-based catalyst. feeding a chromium-based catalyst substantially continuously through a mix vessel to a polymerization reactor, wherein the mix vessel includes an interior sidewall and a nozzle having a neck; adding a reducing agent to contact the chromium-based catalyst through the mix vessel to the polymerization reactor, wherein the reducing agent is added to the chromium-based catalyst in the mix vessel through an entrance arrangement having a conduit extension or a conduit that extends into the mix vessel through the neck of the nozzle on the mix vessel and directs the reducing agent away from the interior sidewall of the mix vessel; and polymerizing an olefin into a polyolefin in the polymerization reactor in presence of the chromium-based catalyst.