mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit comprising: at least one analog input device having a digitally controlled input offset voltage compensation circuit comprising a volatile trim register; and an auto-calibration circuit, said auto-calibration circuit being coupled to said at least one analog input device and to the input offset voltage compensation circuit, wherein an input offset voltage is minimized in said at least one analog input device during an auto-calibration cycle, characterized in that said auto-calibration circuit comprises a first trigger input receiving an output signal from a power on reset circuit and a second trigger input (Acal) operable to be set under program control, wherein upon a power on reset, the power on reset circuit is configured to initiate the auto-calibration cycle and wherein the power on reset circuit is further configured to receive an output signal from a parity detection circuit (308, 312) coupled with said volatile trim register wherein a parity error during operation of the at least one analog input device causes a power on reset thereby initiating the auto-calibration cycle. at least one analog input device having a digitally controlled input offset voltage compensation circuit comprising a volatile trim register; and an auto-calibration circuit, said auto-calibration circuit being coupled to said at least one analog input device and to the input offset voltage compensation circuit, wherein an input offset voltage is minimized in said at least one analog input device during an auto-calibration cycle, characterized in that said auto-calibration circuit comprises a first trigger input receiving an output signal from a power on reset circuit and a second trigger input (Acal) operable to be set under program control, wherein upon a power on reset, the power on reset circuit is configured to initiate the auto-calibration cycle and wherein the power on reset circuit is further configured to receive an output signal from a parity detection circuit (308, 312) coupled with said volatile trim register wherein a parity error during operation of the at least one analog input device causes a power on reset thereby initiating the auto-calibration cycle.
A manager for controlling an actuator system installed in a vehicle, comprising one or more processors configured to receive a plurality of first kinematic plans from a plurality of electronic control units (1a, 1b, 1c) in each of which is implemented an advanced driver assistance system application function, and receive a plurality of second kinematic plans from the plurality of electronic control units (1a, 1b, 1c) that are future kinematic plans following respective first kinematic plans; arbitrate the first kinematic plans and the second kinematic plans; calculate one or more motion requests based on an arbitration result; and output the one or more motion requests to one or more actuator systems (2, 3). receive a plurality of first kinematic plans from a plurality of electronic control units (1a, 1b, 1c) in each of which is implemented an advanced driver assistance system application function, and receive a plurality of second kinematic plans from the plurality of electronic control units (1a, 1b, 1c) that are future kinematic plans following respective first kinematic plans; arbitrate the first kinematic plans and the second kinematic plans; calculate one or more motion requests based on an arbitration result; and output the one or more motion requests to one or more actuator systems (2, 3).
A dry solid matrix for extraction and storage of nucleic acids from a sample, wherein a composition comprising at least one metal thiocyanate comprising a Group 1 or Group 2 metal cation, tris(2-carboxyethyl)phosphine (TCEP), and a buffer is incorporated into the dry solid matrix, and the matrix is then dried, wherein the solid matrix is a porous matrix comprising cellulose, cellulose acetate, glass fiber or any combination thereof.
Connecting apparatus, in particular for connecting a first component to a second component, for example for connecting furniture or machine parts, and/or for connecting a component (102, 104) to an object, wherein the connecting apparatus comprises the following: - a connecting element which comprises a main body which can be arranged in a component (102, 104); - one or more spring elements for establishing a connection to a counterpiece, in particular for introducing into one or more openings in a partner connecting element, wherein the one or more spring elements each have the following: a spring portion and a stabilizing portion, wherein the spring portion protrudes away from the main body, and wherein the stabilizing portion extends in the direction of the main body starting from the spring portion, wherein the main body has at least one spring support for receiving at least one spring element in its entirety, with the result that, when the spring element is arranged in the spring support, it no longer protrudes beyond an upper side of the main body, wherein the connecting element comprises a holding element, movable relative to the main body, for releasably connecting the connecting element to a partner connecting element, in particular a further connecting element, an object and/or a component (102, 104). - a connecting element which comprises a main body which can be arranged in a component (102, 104); - one or more spring elements for establishing a connection to a counterpiece, in particular for introducing into one or more openings in a partner connecting element, wherein the one or more spring elements each have the following: a spring portion and a stabilizing portion, wherein the spring portion protrudes away from the main body, and wherein the stabilizing portion extends in the direction of the main body starting from the spring portion, wherein the main body has at least one spring support for receiving at least one spring element in its entirety, with the result that, when the spring element is arranged in the spring support, it no longer protrudes beyond an upper side of the main body, wherein the connecting element comprises a holding element, movable relative to the main body, for releasably connecting the connecting element to a partner connecting element, in particular a further connecting element, an object and/or a component (102, 104).
Installation for transferring fluid between a fluid source, in particular a cryogenic fluid reserve and a receiving unit, in particular a tank on a boat, comprising a tower with a structure of the beam framework type, the tower comprising a fluid transfer circuit (4, 14, 19) comprising a set of pipe(s) provided with a first pipe (4, 14) extending between a lower first end intended to be connected to a fluid source and an upper second end intended to be connected to a receiving unit, at least part of the transfer circuit (4, 14, 19) situated between the first and second ends being housed within the volume delimited by the tower, characterized in that the tower is composed of at least two separable stacked modules (12, 22) allowing two different configurations of the tower respectively having different heights: a first configuration with the two modules (12, 22) stacked, and a second configuration using only a single module, and in that the transfer circuit (4, 19) situated within the volume delimited by the tower comprises two sections (12, 22) situated respectively in the two modules (12, 22), the two sections being connected to one another via a system of demountable connectors configured to make it possible to adapt the height of the transfer circuit to the two configurations.
A thermoformed multilayer film structure comprising: a core layer and at least two outer layers disposed externally relative to the core layer, wherein at least one layer of the thermoformed multilayer film structure comprises a first composition comprising at least one ethylene-based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2), wherein the thermoformed multilayer film is a thermoformed coextruded blown film, and wherein melt index I 2 is measured in accordance with ASTM D-1238 at 190°C at 2.16 kg; and MWCDI is measured as described in the description. a core layer and at least two outer layers disposed externally relative to the core layer, wherein at least one layer of the thermoformed multilayer film structure comprises a first composition comprising at least one ethylene-based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2), wherein the thermoformed multilayer film is a thermoformed coextruded blown film, and wherein melt index I 2 is measured in accordance with ASTM D-1238 at 190°C at 2.16 kg; and MWCDI is measured as described in the description.
A method of receiving broadcasts, comprising: receiving, by a receiver, a first transmission comprising a plurality of time slots; identifying that the first transmission includes a broadcast portion modulated using a first modulation format and a unicast portion modulated using a second modulation format, wherein the first and second modulation formats are different; demodulating the unicast portion; and demodulating the broadcast portion, characterized in that: the broadcast portion and unicast portion are separate time portions of the first transmission, each occupying one or more separate time slots of the first transmission; and the broadcast portion is a synchronized broadcast portion transmitted by a plurality of synchronized transmitters using a same broadcast waveform. receiving, by a receiver, a first transmission comprising a plurality of time slots; identifying that the first transmission includes a broadcast portion modulated using a first modulation format and a unicast portion modulated using a second modulation format, wherein the first and second modulation formats are different; demodulating the unicast portion; and demodulating the broadcast portion, characterized in that: the broadcast portion and unicast portion are separate time portions of the first transmission, each occupying one or more separate time slots of the first transmission; and the broadcast portion is a synchronized broadcast portion transmitted by a plurality of synchronized transmitters using a same broadcast waveform. the broadcast portion and unicast portion are separate time portions of the first transmission, each occupying one or more separate time slots of the first transmission; and the broadcast portion is a synchronized broadcast portion transmitted by a plurality of synchronized transmitters using a same broadcast waveform.
Electro-pneumatic brake system for a utility vehicle comprising a) a first brake control module by which a brake pressure for a service brake cylinder of a vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, b) a second brake control module by which a brake pressure for a service brake cylinder of at least one vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, c) one of the brake control modules being connected both to a compressed air reservoir as well as to a backup compressed air reservoir, characterized in that d) both the first brake control module as well as the second brake control module are connected to the or a backup compressed air reservoir for providing a supply of compressed air. a) a first brake control module by which a brake pressure for a service brake cylinder of a vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, b) a second brake control module by which a brake pressure for a service brake cylinder of at least one vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, c) one of the brake control modules being connected both to a compressed air reservoir as well as to a backup compressed air reservoir, characterized in that d) both the first brake control module as well as the second brake control module are connected to the or a backup compressed air reservoir for providing a supply of compressed air.
An active energy ray-curable inkjet ink composition containing a pigment, a polymerizable compound, and a photopolymerization initiator, wherein the polymerizable compound comprises 80 wt% or more of aliphatic ethylenically polymerizable compounds based on the total weight of the polymerizable compound, wherein the aliphatic ethylenically polymerizable compounds comprise polyfunctional (meth)acrylates including at least 2-(2-vinyloxyethoxy)ethyl acrylate and dipropylene glycol diacrylate, the photopolymerization initiator comprises an acyl phosphine oxide wherein the acyl phosphine oxide comprises a monoacyl phosphine oxide and the amount of the monoacyl phosphine oxide based on the total weight of acyl phosphine oxide is 70 wt% or more, and the amount of the dipropylene glycol diacrylate is 16 wt% or more and the amount of the acyl phosphine oxide is 10.3 wt% or more with respect to the total weight of the inkjet ink composition.
A method of operating a location apparatus for collecting and detecting service area, SA, swapping noise within a wireless network comprising a plurality of SAs serving a plurality of devices including stationary devices and non-stationary devices and a SA overlap database comprising a plurality of SA overlap records, wherein each SA overlap record includes a pair of SA identifiers from the plurality of SAs, the method comprising the steps of: receiving SA updates from the plurality of devices, wherein each SA update includes a device identifier identifying at least one of the devices and SA identifier of a SA serving at least one of the devices; determining whether each received SA update is associated with a stationary device; if the received SA update is associated with a stationary device, the method performs the steps of: comparing the received SA update with a corresponding previous SA update associated with the same stationary device; and inserting an SA overlap record into the SA overlap database, when the received SA update is different to the corresponding previous SA update, the SA overlap record including the SA identifiers of the received SA update and the corresponding previous SA update associated with the stationary device. receiving SA updates from the plurality of devices, wherein each SA update includes a device identifier identifying at least one of the devices and SA identifier of a SA serving at least one of the devices; determining whether each received SA update is associated with a stationary device; if the received SA update is associated with a stationary device, the method performs the steps of: comparing the received SA update with a corresponding previous SA update associated with the same stationary device; and inserting an SA overlap record into the SA overlap database, when the received SA update is different to the corresponding previous SA update, the SA overlap record including the SA identifiers of the received SA update and the corresponding previous SA update associated with the stationary device. comparing the received SA update with a corresponding previous SA update associated with the same stationary device; and inserting an SA overlap record into the SA overlap database, when the received SA update is different to the corresponding previous SA update, the SA overlap record including the SA identifiers of the received SA update and the corresponding previous SA update associated with the stationary device.
An antenna device comprising: a radio frequency, RF, module comprising: a plurality of first radiating conductors; and an RF integrated chip, RFIC, integrated with the first radiating conductors; and a baseband, BB, module comprising; a plurality of second radiating conductors respectively corresponding to some of the first radiating conductors; and a BB integrated chip, BBIC, integrated with the second radiating conductors, wherein the RF module is positioned facing the BB module to be electrically connected with the BB module, and wherein the first radiating conductors and the second radiating conductors are configured to have a resonance at the frequency of the radio frequency signals provided from the RFIC, characterized in that the second radiating conductors receive the radio frequency signal from the RFIC via at least one of the first radiating conductors provided as a soldering pad. a radio frequency, RF, module comprising: a plurality of first radiating conductors; and an RF integrated chip, RFIC, integrated with the first radiating conductors; and a plurality of first radiating conductors; and an RF integrated chip, RFIC, integrated with the first radiating conductors; and a baseband, BB, module comprising; a plurality of second radiating conductors respectively corresponding to some of the first radiating conductors; and a BB integrated chip, BBIC, integrated with the second radiating conductors, wherein the RF module is positioned facing the BB module to be electrically connected with the BB module, and wherein the first radiating conductors and the second radiating conductors are configured to have a resonance at the frequency of the radio frequency signals provided from the RFIC, characterized in that the second radiating conductors receive the radio frequency signal from the RFIC via at least one of the first radiating conductors provided as a soldering pad.
Fuel injector, having a low-pressure piston and a high-pressure piston, wherein the high-pressure piston has a smaller cross section than the low-pressure piston; wherein, in the low-pressure piston, there is formed a bore which runs parallel to the longitudinal direction of the low-pressure piston; wherein a region of the high-pressure piston is arranged in the bore; and wherein, in the high-pressure piston, there is formed a duct which runs in the longitudinal direction of the high-pressure piston; characterized in that a check valve is formed in the duct which runs in the longitudinal direction of the high-pressure piston.
An information processing device comprising: a communication unit configured to exchange of a wireless signal with another information processing device for generating or updating a multi-hop communication path; and a control unit configured to update path information regarding the multi-hop communication path, wherein the multi-hop communication path has been set through the exchange of the wireless signal before the path information is destroyed; wherein the control unit is configured to decide an effective time and an updating time based on expiration time information included in the wireless signal, wherein the effective time specifies a time at which the path information is destroyed and the updating time specifies a time during which the path information is updated, wherein the updating time is shorter than the effective time; and wherein, when the same multi-hop communication path is consecutively selected as a communication path updated through the exchange of the signal, or when a rate of selection of the same multi-hop communication path is higher than a predetermined value, the control unit is configured to lengthen the effective time and the updating time. a communication unit configured to exchange of a wireless signal with another information processing device for generating or updating a multi-hop communication path; and a control unit configured to update path information regarding the multi-hop communication path, wherein the multi-hop communication path has been set through the exchange of the wireless signal before the path information is destroyed; wherein the control unit is configured to decide an effective time and an updating time based on expiration time information included in the wireless signal, wherein the effective time specifies a time at which the path information is destroyed and the updating time specifies a time during which the path information is updated, wherein the updating time is shorter than the effective time; and wherein, when the same multi-hop communication path is consecutively selected as a communication path updated through the exchange of the signal, or when a rate of selection of the same multi-hop communication path is higher than a predetermined value, the control unit is configured to lengthen the effective time and the updating time.
A method for making an optical device with integrated optoelectronic components, including at least the steps of: a) making a protective structure comprising at least one support in which at least one blind hole is made, at least one optical element being positioned in this blind hole and firmly attached to at least one wall of the blind hole, then b) firmly attaching the support to a substrate comprising the integrated optoelectronic components, the blind hole forming a cavity in which the optical element faces one of the optoelectronic components, then c) performing thinning of the substrate and making electric connections through the substrate, then d) making at least one aperture through the bottom wall of the blind hole, uncovering at least one portion of the optical field of the optical element. a) making a protective structure comprising at least one support in which at least one blind hole is made, at least one optical element being positioned in this blind hole and firmly attached to at least one wall of the blind hole, then b) firmly attaching the support to a substrate comprising the integrated optoelectronic components, the blind hole forming a cavity in which the optical element faces one of the optoelectronic components, then c) performing thinning of the substrate and making electric connections through the substrate, then d) making at least one aperture through the bottom wall of the blind hole, uncovering at least one portion of the optical field of the optical element.
Process for the preparation of GalNAc acid derivatives of the formula I wherein n is an integer between 0 and 10 and its salts, corresponding enantiomers and/ or optical isomers thereof, comprising a) the coupling of a triamine salt of formula II wherein R 1 is an ester protecting group and X is an anion of an acid with a tetrahydropyran acid of formula III wherein R 2 is a hydroxy protecting group and n is as above in the presence of a peptide coupling agent, an amine base and an organic solvent to form the GalNAc ester of formula IV wherein R 1 and R 2 and n are as above; b) the removal of the ester protecting group R 1 and of the hydroxy protecting groups R 2 in the presence of a mineral base to form the GalNAc acid salt of formula V wherein n is as above and M is a metal kation; and c) optionally to transform GalNAc acid salt of formula V into the GalNAc acid derivative of formula I. a) the coupling of a triamine salt of formula II wherein R 1 is an ester protecting group and X is an anion of an acid with a tetrahydropyran acid of formula III wherein R 2 is a hydroxy protecting group and n is as above in the presence of a peptide coupling agent, an amine base and an organic solvent to form the GalNAc ester of formula IV wherein R 1 and R 2 and n are as above; b) the removal of the ester protecting group R 1 and of the hydroxy protecting groups R 2 in the presence of a mineral base to form the GalNAc acid salt of formula V wherein n is as above and M is a metal kation; and c) optionally to transform GalNAc acid salt of formula V into the GalNAc acid derivative of formula I.