mhurhangee/patent-ind-claim-en huggingface dataset:
A notification appliance circuit comprising: at least one notification appliance , the at least one notification appliance including a charge controller including a single stage current controller , the charge controller being configured to output an adjustable charge current ; an energy store configured to receive the charge current, and provide a discharge current; and a notification component configured to receive the discharge current and emit a notification; wherein the single stage current controller includes a current sensor configured to sense an input current of the current controller , a transconductance element configured to output the charge current based on a magnitude of a received transconductance control signal , and a main circuit configured to produce the transconductance control signal based at least in part on a sensed current value received from the current sensor , a charge current control value , and an enable input , wherein the sensed current value and the charge current control value are connected to a summation circuit configured to add the sensed current value and the charge current control value and wherein the enable input is connected to a bias generator and the bias generator is configured to generate a bias voltage based on the enable input to bias the transconductance element, wherein the transconductance element includes a MOSFET which is biased to an operating point to set the MOSFET towards its linear region based on the enable input. at least one notification appliance , the at least one notification appliance including a charge controller including a single stage current controller , the charge controller being configured to output an adjustable charge current ; an energy store configured to receive the charge current, and provide a discharge current; and a notification component configured to receive the discharge current and emit a notification; wherein the single stage current controller includes a current sensor configured to sense an input current of the current controller , a transconductance element configured to output the charge current based on a magnitude of a received transconductance control signal , and a main circuit configured to produce the transconductance control signal based at least in part on a sensed current value received from the current sensor , a charge current control value , and an enable input , wherein the sensed current value and the charge current control value are connected to a summation circuit configured to add the sensed current value and the charge current control value and wherein the enable input is connected to a bias generator and the bias generator is configured to generate a bias voltage based on the enable input to bias the transconductance element, wherein the transconductance element includes a MOSFET which is biased to an operating point to set the MOSFET towards its linear region based on the enable input.
A display comprising: a substrate having an active area that includes an array of pixels and an opening within the active area, wherein the opening has first and second opposing sides and is surrounded by a border region ; a plurality of gate lines (G) coupled to the array of pixels; a plurality of data lines (D) coupled to the array of pixels, wherein a subset (D2) of the plurality of data lines (D) are rerouted within the border region from the first side to the second side and wherein the subset (D2) of the plurality of data lines (D) has portions (D2-R) in the border region that are formed from a first metal layer that is formed in a first plane, a second metal layer that is formed in a second plane that is lower than the first plane, and a third metal layer that is formed in a third plane that is lower than the second plane; at least a first dielectric layer interposed between the first metal layer and the second metal layer ; and at least a second dielectric layer interposed between the second metal layer and the third metal layer ; and a second conductive via that electrically connects the first metal layer to a second portion of the second metal layer , characterised by a first conductive via that electrically connects the third metal layer to a first portion of the second metal layer . a substrate having an active area that includes an array of pixels and an opening within the active area, wherein the opening has first and second opposing sides and is surrounded by a border region ; a plurality of gate lines (G) coupled to the array of pixels; a plurality of data lines (D) coupled to the array of pixels, wherein a subset (D2) of the plurality of data lines (D) are rerouted within the border region from the first side to the second side and wherein the subset (D2) of the plurality of data lines (D) has portions (D2-R) in the border region that are formed from a first metal layer that is formed in a first plane, a second metal layer that is formed in a second plane that is lower than the first plane, and a third metal layer that is formed in a third plane that is lower than the second plane; at least a first dielectric layer interposed between the first metal layer and the second metal layer ; and at least a second dielectric layer interposed between the second metal layer and the third metal layer ; and a second conductive via that electrically connects the first metal layer to a second portion of the second metal layer ,
A method for producing a liquefied nitrogen gas (LIN) stream (116; 216; 324) at a liquid natural gas (LNG) regasification facility comprising: (a) providing a nitrogen gas stream (111; 211; 317); (b) providing at least two LNG streams (105, 106; 205, 206; 307, 308, 309, 310) where the pressures of each LNG stream are independent and different from each other, wherein at least one of the at least two LNG streams is an additionally pressurized LNG stream, which is pressurized using one or more pumps to form the additionally pressurized LNG stream (106; 206; 310); (c) liquefying the nitrogen gas stream by indirect heat exchange of the nitrogen gas stream with the LNG streams (105, 106; 205, 206; 307, 308, 309, 310) in at least one heat exchanger (121, 122; 221; 333); (d) vaporizing at least a portion of the two LNG streams to produce at least two natural gas streams (107, 109; 207, 209; 311, 312, 313, 335); (e) compressing at least one of the two natural gas streams (107; 207; 311, 312, 313) to form compressed natural gas (108; 208; 314); wherein the method is characterized in that at least one of the at least two LNG streams is a reduced pressure LNG stream (105; 205; 307, 308, 309), which is provided at a pressure that is between 3.4 to 13.8 bar (50 to 200 psi) and reduced in pressure to form the reduced pressure LNG stream (105; 205; 307, 308, 309). (a) providing a nitrogen gas stream (111; 211; 317); (b) providing at least two LNG streams (105, 106; 205, 206; 307, 308, 309, 310) where the pressures of each LNG stream are independent and different from each other, wherein at least one of the at least two LNG streams is an additionally pressurized LNG stream, which is pressurized using one or more pumps to form the additionally pressurized LNG stream (106; 206; 310); (c) liquefying the nitrogen gas stream by indirect heat exchange of the nitrogen gas stream with the LNG streams (105, 106; 205, 206; 307, 308, 309, 310) in at least one heat exchanger (121, 122; 221; 333); (d) vaporizing at least a portion of the two LNG streams to produce at least two natural gas streams (107, 109; 207, 209; 311, 312, 313, 335); (e) compressing at least one of the two natural gas streams (107; 207; 311, 312, 313) to form compressed natural gas (108; 208; 314);
A fuel tank system comprising: a saddle fuel tank having a first lobe and a second lobe ; a control module ; a first solenoid ; a second solenoid ; a first vent line having a first vent port located in the first lobe of the saddle fuel tank , the first solenoid configured to open and close the first vent port ; a second vent line having a second vent port located in the second lobe lobe of the saddle fuel tank , the second solenoid configured to open and close the second vent port , wherein the first and second vent ports are positioned near a top portion of the saddle fuel tank and a liquid trap , wherein the first and second vent lines are routed between the respective first and second vent ports and the liquid trap , wherein the control module sends a signal to the first and second solenoids to close the first and second vent ports upon reaching a full fuel condition. a saddle fuel tank having a first lobe and a second lobe ; a control module ; a first solenoid ; a second solenoid ; a first vent line having a first vent port located in the first lobe of the saddle fuel tank , the first solenoid configured to open and close the first vent port ; a second vent line having a second vent port located in the second lobe lobe of the saddle fuel tank , the second solenoid configured to open and close the second vent port , wherein the first and second vent ports are positioned near a top portion of the saddle fuel tank and a liquid trap , wherein the first and second vent lines are routed between the respective first and second vent ports and the liquid trap , wherein the control module sends a signal to the first and second solenoids to close the first and second vent ports upon reaching a full fuel condition.
A control plane connection management method, comprising: receiving , by an access and mobility management function component, a first control plane requirement message from a short message function network element, wherein the first control plane requirement message comprises identifier information of a terminal and the control plane connection activation information; and processing , by the access and mobility management function component, the control plane connection of the terminal based on the control plane connection activation information, wherein processing the control plane connection of the terminal comprises paging the terminal when the control plane connection of the terminal is in an idle state. receiving , by an access and mobility management function component, a first control plane requirement message from a short message function network element, wherein the first control plane requirement message comprises identifier information of a terminal and the control plane connection activation information; and processing , by the access and mobility management function component, the control plane connection of the terminal based on the control plane connection activation information, wherein processing the control plane connection of the terminal comprises paging the terminal when the control plane connection of the terminal is in an idle state.
An oral care composition selected from: (i) a dentifrice comprising from 0.01 weight % to 1.0 weight % rottlerin, based on the total weight of the oral care composition, and (ii) a mouthwash comprising from 0.001 weight % to 0.1 weight % rottlerin, based on the total weight of the oral care composition. (i) a dentifrice comprising from 0.01 weight % to 1.0 weight % rottlerin, based on the total weight of the oral care composition, and (ii) a mouthwash comprising from 0.001 weight % to 0.1 weight % rottlerin, based on the total weight of the oral care composition.
A curative system for epoxy resins comprising an alkyl benzene diamine and an additional aromatic amine in which the alkyl benzene diamine comprises a mixture of compounds of formula I and formula II, in which the compound of formula I has the following structure: or and the compound of formula II has the following structure: or and further wherein the additional aromatic amine comprises methylene bis (diethyl aniline) (M-DEA), methylene (methylethyl aniline)-(chlorodiethyl aniline) (M-MEACDEA) or mixtures thereof. in which the compound of formula I has the following structure: or and the compound of formula II has the following structure: or and further wherein the additional aromatic amine comprises methylene bis (diethyl aniline) (M-DEA), methylene (methylethyl aniline)-(chlorodiethyl aniline) (M-MEACDEA) or mixtures thereof.
A powered device, PD, for power over Ethernet, PoE, comprising an Ethernet port , a rectifier circuit , and a PD circuit , wherein the Ethernet port is connected to the rectifier circuit ; the rectifier circuit is connected to the PD circuit ; the Ethernet port comprises a first contact group and a second contact group; the rectifier circuit comprises four metal-oxide semiconductor field-effect transistors, MOSFETs, and four diodes, each of the four MOSFETs being connected to a diode of the four diodes, the four MOSFETs including a first MOSFET, a second MOSFET, a third MOSFET, and a fourth MOSFET; the rectifier circuit further comprises a first control circuit and a second control circuit ; the first control circuit is configured to skip turning on the first MOSFET and the second MOSFET when a first voltage is less than a first voltage threshold, and further configured to turn on at least one of the first MOSFET and the second MOSFET when the first voltage is greater than the first voltage threshold; wherein the first voltage is a voltage input from the first contact group; and the second control circuit is configured to turn on at least one of the third MOSFET and the fourth MOSFET when a second voltage is greater than a second voltage threshold, and further configured to skip turning on the third MOSFET and the fourth MOSFET when the first voltage is less than the second voltage threshold, wherein the second voltage is a voltage input from the second contact group
A method of retrieving an assembly having a whipstock coupled to an anchor from a wellbore, comprising: releasing the whipstock from the anchor in the wellbore; re-engaging the whipstock to the anchor ; and retrieving the whipstock with the anchor from the wellbore. releasing the whipstock from the anchor in the wellbore; re-engaging the whipstock to the anchor ; and retrieving the whipstock with the anchor from the wellbore.
Method for operating a gear pump, a conveying device with at least two gearwheels which are arranged in a housing being provided, it being possible for a liquid to be conveyed to be conveyed by means of the gearwheels starting from at least one housing inlet towards at least one housing outlet , the gearwheels being arranged behind one another as viewed in the axial direction (x), and an actuating device being provided, by means of which the gearwheels are rotated relative to one another and/or are moved relative to one another, in such a way that a fixing device is provided, by means of which at least one gearwheel which configures an actuating gearwheel is fixed on the housing such that it can be moved and/or rotated relative to at least one other gearwheel , characterized in that the gearwheels are rotated relative to one another and/or are moved relative to one another by means of the actuating device in a manner which is dependent on the pressure conditions in the interior of the housing , the actuating device having at least one spring element as prestressing element , by means of which the actuating gearwheel can be prestressed into a basic position.
Rotary press for compressing a pressing food material (M), like food powder, into food tablets (T), comprising: • a feeding system comprising a feeder for continuously supplying the pressing food material (M) and a feeding pipe for providing the pressing food material (M) received from the feeder , • a press system comprising a rotary die plate being drivable about a rotational axis (R) and comprising a plurality of die cavities for successively receiving an amount of pressing food material (M) provided by the feeding pipe and to produce food tablets (T) inside the die cavities by means of punches upon a rotational movement of the die cavities of the rotary die plate with respect to the feeding system , • a sensor arrangement for detecting a fill level (L) of the pressing food material (M) in the feeding pipe , and • a control unit configured to control a feeding speed of the feeder for continuously supplying the pressing food material (M) based on the detected fill level (L) to keep the fill level (L) at a defined fill level set point (L SP ); wherein the sensor arrangement comprises at least three digital sensors (41-45) having a first digital sensor for detecting the fill level (L) at the fill level set point (L SP ), a second digital sensor for detecting the fill level (L) at a defined upper fill level limit (L UP ) being above the fill level set point (L SP ), and a third digital sensor for detecting the fill level (L) at a defined lower fill level limit (L LOW ) being below the fill level set point (L SP ) and wherein the digital sensors (41-45) are LED infrared sensors. • a feeding system comprising a feeder for continuously supplying the pressing food material (M) and a feeding pipe for providing the pressing food material (M) received from the feeder , • a press system comprising a rotary die plate being drivable about a rotational axis (R) and comprising a plurality of die cavities for successively receiving an amount of pressing food material (M) provided by the feeding pipe and to produce food tablets (T) inside the die cavities by means of punches upon a rotational movement of the die cavities of the rotary die plate with respect to the feeding system , • a sensor arrangement for detecting a fill level (L) of the pressing food material (M) in the feeding pipe , and • a control unit configured to control a feeding speed of the feeder for continuously supplying the pressing food material (M) based on the detected fill level (L) to keep the fill level (L) at a defined fill level set point (L SP );
An electronic device, wherein the electronic device comprises a printed circuit board PCB ground layer, a metal frame , and an antenna apparatus, and the antenna apparatus comprises a slot , a first feeding point (M), a second feeding point (N), and a bridge structure , wherein the slot is formed between the PCB ground layer and a first segment of the metal frame, the first segment of the metal frame comprises a first end and a second end, both ends of the slot are grounded, the slot comprises a first side edge (23-1) and a second side edge (23-2), the first side edge is formed by the PCB ground layer, the second side edge is formed by the first segment of the metal frame, the first segment comprises a first part, a second part, and a third part, the first part is located on one side of the third part, the second part is located on the other side of the third part, and the third part comprises a first gap , a second gap , and a suspended segment located between the first gap and the second gap; the first feeding point (M) is located on the first part, the second feeding point (N) is located on the second part, and the first feeding point and the second feeding point are respectively connected to a positive electrode and a negative electrode of a feed of the antenna apparatus; and the bridge structure comprises a first end (26-2) and a second end (26-1), the first end is connected to the first part, the second end is connected to the second part, a third feeding point (S) is disposed on the bridge structure, and the third feeding point is connected to the positive electrode of the feed; and wherein the bridge structure is further connected to the suspended segment . the slot is formed between the PCB ground layer and a first segment of the metal frame, the first segment of the metal frame comprises a first end and a second end, both ends of the slot are grounded, the slot comprises a first side edge (23-1) and a second side edge (23-2), the first side edge is formed by the PCB ground layer, the second side edge is formed by the first segment of the metal frame, the first segment comprises a first part, a second part, and a third part, the first part is located on one side of the third part, the second part is located on the other side of the third part, and the third part comprises a first gap , a second gap , and a suspended segment located between the first gap and the second gap; the first feeding point (M) is located on the first part, the second feeding point (N) is located on the second part, and the first feeding point and the second feeding point are respectively connected to a positive electrode and a negative electrode of a feed of the antenna apparatus; and the bridge structure comprises a first end (26-2) and a second end (26-1), the first end is connected to the first part, the second end is connected to the second part, a third feeding point (S) is disposed on the bridge structure, and the third feeding point is connected to the positive electrode of the feed; and wherein the bridge structure is further connected to the suspended segment .
A topical composition for regulating a cosmetic skin or hair condition, the composition comprising an effective amount of isolated exosomes having increased levels of heat shock stress-response molecules, wherein the isolated exosomes are heat shock exosomes derived from heat shocked mesenchymal stem cells of placental or adipose origin, and a carrier and wherein the heat shock exosomes are produced by a process comprising: (a) culturing the stem cells in culture medium, wherein the culturing includes a step of heat shocking the stem cells in a serum-free culture medium by increasing the culture temperature to 41°C to 43 °C for 1 hour to 3 hours, and wherein the serum-free culture medium contains the exosomes having the increased levels of heat shock stress-response molecules; and (b) isolating the exosomes having increased levels of heat shock stress-response molecules from the serum-free medium. (a) culturing the stem cells in culture medium, wherein the culturing includes a step of heat shocking the stem cells in a serum-free culture medium by increasing the culture temperature to 41°C to 43 °C for 1 hour to 3 hours, and wherein the serum-free culture medium contains the exosomes having the increased levels of heat shock stress-response molecules; and (b) isolating the exosomes having increased levels of heat shock stress-response molecules from the serum-free medium.
A mantle for a gyratory or cone crusher, the crusher comprising a frame provided with a bowl as a first crushing shell, and a crusher head provided with the mantle as a second crushing shell, wherein the mantle and bowl define a crushing gap between them, wherein the mantle comprises a central axis (Z), a first end and a second end along the central axis (Z), and an outer peripheral surface defined by a generatrix rotating around the central axis (Z), the outer peripheral surface constituting a crushing surface of the mantle , and an outer diameter of the mantle being larger at the second end than at the first end of the mantle , wherein one or more cavities for receiving wear resistant inserts are formed in the crushing surface , and/or one or more wear resistant inserts are bonded to or into the crushing surface , characterized in that one or more grooves are formed in the crushing surface at the second end of the mantle . the crusher comprising a frame provided with a bowl as a first crushing shell, and a crusher head provided with the mantle as a second crushing shell, wherein the mantle and bowl define a crushing gap between them, wherein the mantle comprises a central axis (Z), a first end and a second end along the central axis (Z), and an outer peripheral surface defined by a generatrix rotating around the central axis (Z), the outer peripheral surface constituting a crushing surface of the mantle , and an outer diameter of the mantle being larger at the second end than at the first end of the mantle , wherein one or more cavities for receiving wear resistant inserts are formed in the crushing surface , and/or one or more wear resistant inserts are bonded to or into the crushing surface , characterized in that one or more grooves are formed in the crushing surface at the second end of the mantle .