mhurhangee/ep-ind-claims huggingface dataset:
A method for generic mapping procedure, GMP, mapping, characterized in that the method comprises: carrying, in an optical channel payload unit, OPU, overhead in a first OPU multiframe, a change indication of a quantity of one or more time slots that need to be occupied by a GMP block container in a second OPU multiframe, wherein the second OPU multiframe is subsequent to the first OPU multiframe; adjusting the quantity of one or more time slots that need to be occupied by the GMP block container in the second OPU multiframe in accordance with the change indication, to obtain an adjusted GMP block container in the second OPU multiframe; performing GMP mapping on customer service data to be sent into the adjusted GMP block container. carrying, in an optical channel payload unit, OPU, overhead in a first OPU multiframe, a change indication of a quantity of one or more time slots that need to be occupied by a GMP block container in a second OPU multiframe, wherein the second OPU multiframe is subsequent to the first OPU multiframe; adjusting the quantity of one or more time slots that need to be occupied by the GMP block container in the second OPU multiframe in accordance with the change indication, to obtain an adjusted GMP block container in the second OPU multiframe; performing GMP mapping on customer service data to be sent into the adjusted GMP block container.
An optical difference detector (21C; 21D), comprising: a first avalanche photodiode and a second avalanche photodiode configured to amplify and output a signal current according to input light; a first voltage application unit configured to apply a first bias voltage to the first avalanche photodiode and a second voltage application unit configured to apply a second bias voltage to the second avalanche photodiode; a differential amplifier that is connected in parallel to the first avalanche photodiode and the second avalanche photodiode and is configured to amplify a difference between a first signal current output from the first avalanche photodiode and a second signal current output from the second avalanche photodiode; an optical attenuator configured to attenuate input light to the first avalanche photodiode or input light to the second avalanche photodiode; and a feedback control unit configured to control an amount of attenuation of the input light by the optical attenuator so that a low frequency component of a first monitoring current in the first avalanche photodiode and a low frequency component of a second monitoring current in the second avalanche photodiode are equal. a first avalanche photodiode and a second avalanche photodiode configured to amplify and output a signal current according to input light; a first voltage application unit configured to apply a first bias voltage to the first avalanche photodiode and a second voltage application unit configured to apply a second bias voltage to the second avalanche photodiode; a differential amplifier that is connected in parallel to the first avalanche photodiode and the second avalanche photodiode and is configured to amplify a difference between a first signal current output from the first avalanche photodiode and a second signal current output from the second avalanche photodiode; an optical attenuator configured to attenuate input light to the first avalanche photodiode or input light to the second avalanche photodiode; and a feedback control unit configured to control an amount of attenuation of the input light by the optical attenuator so that a low frequency component of a first monitoring current in the first avalanche photodiode and a low frequency component of a second monitoring current in the second avalanche photodiode are equal.
A visfatin antagonist for use in treating a sebum over-production condition selected from acne, seborrhea, seborrhoeic dermatitis, a sebaceous cyst and sebaceous hyperplasia, wherein said visfatin antagonist comprises: a) at least one compound selected from FK-866 and AP0866; or b) at least one siRNA comprising a nucleic acid sequence selected from SEQ ID NO: 19, SEQ ID NO: 20, SEQ ID NO: 21, SEQ ID NO: 22, SEQ ID NO: 23, SEQ ID NO: 24, SEQ ID NO: 25, SEQ ID NO: 26, SEQ ID NO: 9, SEQ ID NO:10, SEQ ID NO: 13, SEQ ID NO: 14, SEQ ID NO: 17, and SEQ ID NO: 18. a) at least one compound selected from FK-866 and AP0866; or b) at least one siRNA comprising a nucleic acid sequence selected from SEQ ID NO: 19, SEQ ID NO: 20, SEQ ID NO: 21, SEQ ID NO: 22, SEQ ID NO: 23, SEQ ID NO: 24, SEQ ID NO: 25, SEQ ID NO: 26, SEQ ID NO: 9, SEQ ID NO:10, SEQ ID NO: 13, SEQ ID NO: 14, SEQ ID NO: 17, and SEQ ID NO: 18.
A method for classifying an individual afflicted with primary cutaneous melanoma, comprising determining in a melanoma tissue sample from said individual a gene expression signature, wherein the gene expression signature comprises ITGB3, PLAT, GDF15 and IL8 and wherein the individual is classified as having a metastasis-positive SLN or is classified as having a metastasis-negative SLN.
An elevator system comprising a system controller, wherein the system controller is configured to: render a plurality of determinations for effecting elevator service during a lockdown condition, including a first determination that an elevator car is transporting a first passenger to a first floor, a second determination that a lockdown event is occurring at a second floor, a third determination for the elevator car to transport the first passenger to a third floor to avoid travel proximate the second floor, and execute one or more communications including: a first communication to an elevator car controller for the elevator car to effect the third determination; characterized in that: the third determination includes the controller rendering a fourth determination that the third floor includes access to a safety zone. render a plurality of determinations for effecting elevator service during a lockdown condition, including a first determination that an elevator car is transporting a first passenger to a first floor, a second determination that a lockdown event is occurring at a second floor, a third determination for the elevator car to transport the first passenger to a third floor to avoid travel proximate the second floor, and execute one or more communications including: a first communication to an elevator car controller for the elevator car to effect the third determination; characterized in that: the third determination includes the controller rendering a fourth determination that the third floor includes access to a safety zone.
A capacitor assembly (111, 211) comprising: a capacitor having a generally cylindrical shape; a lower enclosure having a first recess; a first annular retainer (38, 138) adapted for engaging a lower portion of the capacitor and the first recess, an upper enclosure having a plurality of second recesses; and a second annular retainer (52, 152) for engaging an upper portion of the capacitor and the second recesses, characterized in that the first annular retainer (38, 138) has a plurality of tabs that extend radially outward from an outer diameter surface of the first annular retainer (38, 138), each of the tabs having a sloped surface or a peaked surface for compression of the first annular retainer (38, 138) against the lower portion of the capacitor, and that the second annular retainer (52, 152) has a plurality of protrusions that extend upward from the second annular retainer (52, 152), each of the protrusions having a slit for receiving a wedge, such that if the protrusions engage the wedge the second annular retainer (52, 152) is compressed against the capacitor. a capacitor having a generally cylindrical shape; a lower enclosure having a first recess; a first annular retainer (38, 138) adapted for engaging a lower portion of the capacitor and the first recess, an upper enclosure having a plurality of second recesses; and a second annular retainer (52, 152) for engaging an upper portion of the capacitor and the second recesses, characterized in that the first annular retainer (38, 138) has a plurality of tabs that extend radially outward from an outer diameter surface of the first annular retainer (38, 138), each of the tabs having a sloped surface or a peaked surface for compression of the first annular retainer (38, 138) against the lower portion of the capacitor, and that the second annular retainer (52, 152) has a plurality of protrusions that extend upward from the second annular retainer (52, 152), each of the protrusions having a slit for receiving a wedge, such that if the protrusions engage the wedge the second annular retainer (52, 152) is compressed against the capacitor.
An RNA molecule comprising (a) a coding region coding for a polypeptide; and (b) upstream of said coding region one or more UTR(s) comprising the sequence as shown in SEQ ID NO:1 or a sequence which shows 1 to 4 substitutions in comparison to SEQ ID NO:1 and which results in an RNA molecule having the same or a higher translation efficiency as an RNA molecule comprising an UTR comprising SEQ ID NO:1; and/or (c) downstream of said coding region one or more UTR(s) comprising the sequence as shown in SEQ ID NO:2 or a sequence which shows 1 to 7 substitutions in comparison to SEQ ID NO:2 and which results in an RNA molecule having the same or a higher translation efficiency as an RNA molecule comprising an UTR comprising SEQ ID NO:2; wherein said polypeptide encoded by said coding region is not a cytochrome b-245 alpha polypeptide (CYBA). (a) a coding region coding for a polypeptide; and (b) upstream of said coding region one or more UTR(s) comprising the sequence as shown in SEQ ID NO:1 or a sequence which shows 1 to 4 substitutions in comparison to SEQ ID NO:1 and which results in an RNA molecule having the same or a higher translation efficiency as an RNA molecule comprising an UTR comprising SEQ ID NO:1; and/or (c) downstream of said coding region one or more UTR(s) comprising the sequence as shown in SEQ ID NO:2 or a sequence which shows 1 to 7 substitutions in comparison to SEQ ID NO:2 and which results in an RNA molecule having the same or a higher translation efficiency as an RNA molecule comprising an UTR comprising SEQ ID NO:2;
Method for producing a component by means of laser sintering, comprising the steps of: - providing a polymer powder, - applying a number of layers of powder of the polymer powder in a successive sequence to a building platform of a process chamber, - heating each applied layer of powder to a process temperature, - thermally treating each applied layer of powder by means of a laser, a first part of the polymer powder on the building platform being melted and sintered by cooling and a second part of the polymer powder being aged and not sintered, the component being formed by the melting and sintering, - collecting the second part of the polymer powder, - feeding the collected second part of the polymer powder into a mixing device, characterized by - adding at least one additive to the second part of the polymer powder in the mixing device, the additive being designed to shorten the molecular chains of the second part of the polymer powder, the additive being at least one element selected from the group consisting of alkanediols, alkali carbonates, earth alkali carbonates, carboxylic acids, dicarboxylic acids, carboxylic acid anhydrides, carboxylic acid dianhydrides and cyclic ketones, - forming a mixture of the second part of the polymer powder with the additive by mixing, - introducing the mixture of the second part of the polymer powder with the additive onto the building platform of the process chamber and - heating the mixture of the second part of the polymer powder with the additive in such a way that the molecular chains of the second part of the polymer powder are shortened. - providing a polymer powder, - applying a number of layers of powder of the polymer powder in a successive sequence to a building platform of a process chamber, - heating each applied layer of powder to a process temperature, - thermally treating each applied layer of powder by means of a laser, a first part of the polymer powder on the building platform being melted and sintered by cooling and a second part of the polymer powder being aged and not sintered, the component being formed by the melting and sintering, - collecting the second part of the polymer powder, - feeding the collected second part of the polymer powder into a mixing device, characterized by - adding at least one additive to the second part of the polymer powder in the mixing device, the additive being designed to shorten the molecular chains of the second part of the polymer powder, the additive being at least one element selected from the group consisting of alkanediols, alkali carbonates, earth alkali carbonates, carboxylic acids, dicarboxylic acids, carboxylic acid anhydrides, carboxylic acid dianhydrides and cyclic ketones, - forming a mixture of the second part of the polymer powder with the additive by mixing, - introducing the mixture of the second part of the polymer powder with the additive onto the building platform of the process chamber and - heating the mixture of the second part of the polymer powder with the additive in such a way that the molecular chains of the second part of the polymer powder are shortened.
Measuring arrangement, wherein a magnet moves or takes a position because of the movement or position of an object in a pressurized space, and this movement or position of the magnet is collected by a sensor, wherein between the object and the magnet a mechanical converter is arranged, characterized in that the mechanical converter is configured as cable pull arrangement with a clamping device for a cable, and between magnet and sensor a non-magnetic, pressure-proof dividing wall is located.
A heat exchanger having an intake header, a discharge header, a bundle of tubes extending in parallel with one another between the intake header and the discharge header, an intake pipe connected to the intake header and extending transversely to the axes of the tubes of the bundle, the intake pipe having a first end opening into the header and a second end connectable to a process fluid supply pipe, and a baffle assembly for modifying the direction and rate of flow of the process fluid through the intake header, characterised in that the baffle assembly is located within the intake pipe and secured to the intake pipe at a position adjacent the second end of the intake pipe, and the baffle assembly comprises a plurality of slats lying in planes generally parallel to one another and inclined to the direction of fluid flow, and runners connected to the ends of the slats to form a rigid structure.
A method of acquiring information of an accessory connected to a vehicle, the method comprising: in a control unit of the vehicle, acquiring an accessory identifier from the accessory; the method being characterized by transmitting the accessory identifier to a remote server comprising accessory information; in the remote server, matching the accessory identifier with corresponding accessory information and transmitting the accessory information to the vehicle; and receiving the accessory information in the control unit of the vehicle, wherein the accessory information comprises a control program for controlling a functionality of the accessory. in a control unit of the vehicle, acquiring an accessory identifier from the accessory; the method being characterized by transmitting the accessory identifier to a remote server comprising accessory information; in the remote server, matching the accessory identifier with corresponding accessory information and transmitting the accessory information to the vehicle; and receiving the accessory information in the control unit of the vehicle, wherein the accessory information comprises a control program for controlling a functionality of the accessory.
A method for forwarding network packets at a device, comprising: providing a virtual machine that implements a first router; providing, in a user space of a memory of the device, a plurality of processing pipelines (412, 414) for enabling communications between the first router and a second router implemented in a host software stack of the device, wherein the plurality of processing pipelines (412, 414) includes a first processing pipeline for performing packet switching processing and a second processing pipeline for performing packet routing processing; receiving, at a network port of the device, a network packet; copying, using a device driver from kernel, the network packet from the network port to one of the plurality of processing pipelines (412, 414); accessing, by the first router, the network packet from the one of the plurality of processing pipelines (412, 414); and processing, by the first router, the network packet using a real-time thread executing on a processor core assigned to the real-time thread for forwarding of the network packet, wherein using the real-time thread comprises assigning higher priority to the real-time thread than other threads. providing a virtual machine that implements a first router; providing, in a user space of a memory of the device, a plurality of processing pipelines (412, 414) for enabling communications between the first router and a second router implemented in a host software stack of the device, wherein the plurality of processing pipelines (412, 414) includes a first processing pipeline for performing packet switching processing and a second processing pipeline for performing packet routing processing; receiving, at a network port of the device, a network packet; copying, using a device driver from kernel, the network packet from the network port to one of the plurality of processing pipelines (412, 414); accessing, by the first router, the network packet from the one of the plurality of processing pipelines (412, 414); and processing, by the first router, the network packet using a real-time thread executing on a processor core assigned to the real-time thread for forwarding of the network packet, wherein using the real-time thread comprises assigning higher priority to the real-time thread than other threads.
A circuit arrangement for emergency shutdown of a load (81, 82, 83) and for checking the operability of the emergency shutdown of the load in a system including a sensor for controlling a load (81, 82, 83) and an emergency shutdown button, comprising: - a supply voltage source which is connected to the load (81, 82, 83) via electrical lines and a load output; - a main switch for blocking or supplying the supply voltage to the load; - a first series circuit having a first controllable output switch and a first diode leading to a load output; - a second series circuit having a second controllable output switch and a second diode leading to the load output; - a cross connection between the series circuits (21, 22) for jointly connecting said output switches (3, 4) to the main switch; - a logic unit for alternately switching on and off a respective one of the output switches (3, 4) in a test mode with disconnected load by tapping (43, 44) the voltage at the respective output switch (4, 3) that is being tested, and with the respective other output switch (4, 3) remaining switched on in a load mode with current supply to the load. - a supply voltage source which is connected to the load (81, 82, 83) via electrical lines and a load output; - a main switch for blocking or supplying the supply voltage to the load; - a first series circuit having a first controllable output switch and a first diode leading to a load output; - a second series circuit having a second controllable output switch and a second diode leading to the load output; - a cross connection between the series circuits (21, 22) for jointly connecting said output switches (3, 4) to the main switch; - a logic unit for alternately switching on and off a respective one of the output switches (3, 4) in a test mode with disconnected load by tapping (43, 44) the voltage at the respective output switch (4, 3) that is being tested, and with the respective other output switch (4, 3) remaining switched on in a load mode with current supply to the load.
A computer-implemented method, comprising: receiving connectivity information for a circuit segment at a transistor level in a first integrated circuit, the connectivity information indicating connections between components (404, 408, 412, 416, 420) of the circuit segment and components of the first integrated circuit; collapsing the connectivity information to generate reduced connectivity information for the circuit segment by analyzing functionality of the circuit segment and removing or replacing at least one redundant component or node of the circuit segment without modifying the functionality, the reduced connectivity information representing a logically compacted version of the connectivity information; and generating a circuit stencil (372, 780) using the reduced connectivity information, wherein generating the circuit stencil (372, 780) comprises extracting or inferring a design intent from the circuit segment of the first integrated circuit and including the design intent in the circuit stencil (372, 780); and instantiating the circuit stencil (372, 780) into a second integrated circuit, wherein instantiating comprises re-using the design intent for one or more of a pre-layout simulation of the second integrated circuit, and generating a physical layout of the circuit stencil (372, 780), the circuit stencil (372, 780) representing an abstracted version of the circuit segment. receiving connectivity information for a circuit segment at a transistor level in a first integrated circuit, the connectivity information indicating connections between components (404, 408, 412, 416, 420) of the circuit segment and components of the first integrated circuit; collapsing the connectivity information to generate reduced connectivity information for the circuit segment by analyzing functionality of the circuit segment and removing or replacing at least one redundant component or node of the circuit segment without modifying the functionality, the reduced connectivity information representing a logically compacted version of the connectivity information; and generating a circuit stencil (372, 780) using the reduced connectivity information, wherein generating the circuit stencil (372, 780) comprises extracting or inferring a design intent from the circuit segment of the first integrated circuit and including the design intent in the circuit stencil (372, 780); and instantiating the circuit stencil (372, 780) into a second integrated circuit, wherein instantiating comprises re-using the design intent for one or more of a pre-layout simulation of the second integrated circuit, and generating a physical layout of the circuit stencil (372, 780), the circuit stencil (372, 780) representing an abstracted version of the circuit segment.