mhurhangee/patent-ind-claim-en huggingface dataset:
A system for detecting and correcting for an unloaded vehicle condition, the system comprising: a vehicle control system; and a controller configured to receive, from a sensor module , at least one sensor value including normal force; determine at least one vehicle motion characteristic based on the at least one sensor value; determine that an unloaded state exists when a value of the at least one vehicle motion characteristic exceeds a threshold; and activate at least one countermeasure when the controller determines that the unloaded state exists. a vehicle control system; and a controller configured to receive, from a sensor module , at least one sensor value including normal force; determine at least one vehicle motion characteristic based on the at least one sensor value; determine that an unloaded state exists when a value of the at least one vehicle motion characteristic exceeds a threshold; and activate at least one countermeasure when the controller determines that the unloaded state exists.
A container refrigeration apparatus including a refrigerant circuit , the apparatus comprising: a failure determiner configured to perform a failure diagnosis to successively evaluate functions of the refrigerant circuit and components forming the refrigerant circuit for a plurality of evaluation items, wherein the failure determiner is further configured so that, if the failure diagnosis is interrupted due to a loss of power from a power supply to the container refrigeration apparatus, the failure determiner has a restarting function to restart the failure diagnosis from an intermediate point of the failure diagnosis after restoration of power to the container refrigeration apparatus. a failure determiner configured to perform a failure diagnosis to successively evaluate functions of the refrigerant circuit and components forming the refrigerant circuit for a plurality of evaluation items, wherein the failure determiner is further configured so that, if the failure diagnosis is interrupted due to a loss of power from a power supply to the container refrigeration apparatus, the failure determiner has a restarting function to restart the failure diagnosis from an intermediate point of the failure diagnosis after restoration of power to the container refrigeration apparatus.
A system for analysing the spectrum of a radio frequency signal capable of operating in a given frequency band, the system being capable of providing an indication of spectral power of the radio frequency signal in a plurality of frequency channels, each frequency channel being defined by a frequency range within said frequency band, comprising: - a thin layer of magnetically ordered material subjected to the radio frequency (RF) signal to be analysed, said thin layer being nanostructured and consisting of a plurality of sets of elementary nanostructures , each set of elementary nanostructures having a resonance frequency corresponding to one of said frequency channels, and - an illumination and image acquisition system comprising an image acquisition device , capable of optically probing by polarization analysis the resonance state of elementary nanostructures and of forming an image (I) containing spectral power information of the radio frequency (RF) signal to be analysed when said radio frequency (RF) signal reaches said nanostructured thin layer , characterised in that each set of elementary nanostructures is formed by a regular paving of elementary nanostructures, the dimensions of said paving being determined according to the size of a pixel of the image acquisition device . - a thin layer of magnetically ordered material subjected to the radio frequency (RF) signal to be analysed, said thin layer being nanostructured and consisting of a plurality of sets of elementary nanostructures , each set of elementary nanostructures having a resonance frequency corresponding to one of said frequency channels, and - an illumination and image acquisition system comprising an image acquisition device , capable of optically probing by polarization analysis the resonance state of elementary nanostructures and of forming an image (I) containing spectral power information of the radio frequency (RF) signal to be analysed when said radio frequency (RF) signal reaches said nanostructured thin layer , characterised in that each set of elementary nanostructures is formed by a regular paving of elementary nanostructures, the dimensions of said paving being determined according to the size of a pixel of the image acquisition device .
A sublingual formulation in the form of a lyophilized pharmaceutical composition that provides sublingual adsorption of riluzole comprising an effective amount of riluzole or a pharmaceutically acceptable salt, solvate, anomer, enantiomer, or hydrate thereof, said formulation further comprising a tablet binder, a sugar alcohol selected from the group consisting of mannitol and sorbitol as a bulking agent, and docusate sodium as a solubilizing agent, for use in treating a neuropsychiatric disorder or symptom of a subject.
Interior of a vehicle, in particular a rail vehicle or a bus, with a holding apparatus and an interior fitting part, wherein the interior fitting part is a seat or a group of seats , wherein the holding apparatus comprises an apparatus body , which is designed as a single piece with the interior fitting part of the vehicle, wherein the seat or the group of seats serves as an apparatus body or can be connected to the interior fitting part of the vehicle, and which has at least one recess , which is partially delimited by the apparatus body and into which a contact body can be inserted, which can be connected by way of a non-positive fit to the apparatus body , wherein the at least one recess is provided in a seating area of the seat and is open towards a front side of the seating area , such that, while they are seated, a passenger can leave the contact body in their vicinity, or wherein the interior fitting part is a back rest .
A method performed by a network node configured to communicate with a wireless device , the method comprising: determining (S136) a fixed size resource block, RB, assignment for an uplink transmission by the wireless device , the uplink transmission corresponding to a message 3, MSG3, transmission of a New Radio, NR, random access procedure and being scheduled by a random access response, RAR, corresponding to a message 2, MSG2, transmission of the NR random access procedure in which the fixed size RB assignment is indicated to the wireless device , wherein the fixed size RB assignment is based at least in part on: whether the uplink transmission is a slot transmission having a time duration of a slot or a non-slot transmission having a time duration less than a slot; and/or resource allocation type used in the RAR. determining (S136) a fixed size resource block, RB, assignment for an uplink transmission by the wireless device , the uplink transmission corresponding to a message 3, MSG3, transmission of a New Radio, NR, random access procedure and being scheduled by a random access response, RAR, corresponding to a message 2, MSG2, transmission of the NR random access procedure in which the fixed size RB assignment is indicated to the wireless device , wherein the fixed size RB assignment is based at least in part on: whether the uplink transmission is a slot transmission having a time duration of a slot or a non-slot transmission having a time duration less than a slot; and/or resource allocation type used in the RAR. whether the uplink transmission is a slot transmission having a time duration of a slot or a non-slot transmission having a time duration less than a slot; and/or resource allocation type used in the RAR.
Deterministic network interface , configured for connection with one host system and two Ethernet physical media , such that the interface is connectable with two neighbouring network interfaces , the interface comprising a Media Access Control layer , operatively arranged for receiving and transmitting data from and to said two neighbouring network interfaces, and for receiving and transmitting data from and to the host system, wherein the deterministic network interface comprises a programmable configuration area and is operatively arranged for inserting and/or recognizing IP and/or MAC addresses in the Ethernet packets based on an address table stored in the configuration area , the IP and/or MAC addresses of the nodes being statically determined, the configuration areas of the network interfaces storing a table of the IP and/or MAC addresses of other nodes in the network, and wherein the transit of data through the network interface is time-deterministic.
Multiphase plate heat exchanger for two or more gaseous media , wherein the multiphase plate heat exchanger comprises a plurality of chambers formed by heat exchanger plates separated from each other by active surfaces , wherein the active surfaces are adapted for heat transfer between the affected media on one or both surfaces of one or two different slow-flowing liquids , so that they interact directly with the respective media , so that evaporation or condensation and also crystallization or solution of crystals can take place due to the concentration changes in the liquids occurring thereby, wherein pumps are provided in order to transfer these liquids from the outside to their specific input positions between the heat exchanger plates so that they can move from there as a wetting liquid film along the active surfaces through the plate heat exchanger , wherein associated media and liquids can flow in parallel or countercurrent to each other, characterized in that the liquid supply from a storage tank to the small openings , which serve as input positions between the heat exchanger plates , is effected in such a way that the supply line after the pump fans out into a bundle of capillaries in tubular or hose form which open out at the corresponding small openings in the heat exchanger, and in that in each heat exchanger plate gap both adjacent surfaces can be wetted with the liquids .
A three-dimensional manufacturing apparatus for modelling a three-dimensional modeled object (M) by irradiating a powder material (A) with an energy beam, the three-dimensional manufacturing apparatus comprises: a table having a main surface for receiving the powder material (A); a rotary drive unit configured to rotate the table about a rotation axis (C) in a circumferential direction; a controller comprising a region setting unit and a rotation speed adjusting unit ; the region setting unit configured to set a plurality of divided regions obtained by dividing, in the circumferential direction, an irradiation region of the energy beam on a main surface of the table , the irradiation region corresponding to a cross section of the modeled object (M) intersecting the rotation axis (C); an irradiation unit that faces the main surface of the table and irradiates the powder material (A) with the energy beam for each of the divided regions ; and the rotation speed adjusting unit configured to adjust a rotation speed of the table , wherein an area per unit central angle of a first divided region among the plurality of divided regions is smaller than an area per unit central angle of a second divided region among the plurality of divided regions, wherein area is the area of a cross section of a layer of the modeled object (M), and the rotation speed adjusting unit further configured to perform adjustments of the rotary drive unit so that a rotation speed of the table during a period of irradiating the first divided region with the energy beam becomes faster than a rotation speed of the table during a period of irradiating the second divided region with the energy beam. a table having a main surface for receiving the powder material (A); a rotary drive unit configured to rotate the table about a rotation axis (C) in a circumferential direction; a controller comprising a region setting unit and a rotation speed adjusting unit ; the region setting unit configured to set a plurality of divided regions obtained by dividing, in the circumferential direction, an irradiation region of the energy beam on a main surface of the table , the irradiation region corresponding to a cross section of the modeled object (M) intersecting the rotation axis (C); an irradiation unit that faces the main surface of the table and irradiates the powder material (A) with the energy beam for each of the divided regions ; and the rotation speed adjusting unit configured to adjust a rotation speed of the table , wherein an area per unit central angle of a first divided region among the plurality of divided regions is smaller than an area per unit central angle of a second divided region among the plurality of divided regions, wherein area is the area of a cross section of a layer of the modeled object (M), and the rotation speed adjusting unit further configured to perform adjustments of the rotary drive unit so that a rotation speed of the table during a period of irradiating the first divided region with the energy beam becomes faster than a rotation speed of the table during a period of irradiating the second divided region with the energy beam.
An automotive article comprising a thermoplastic composition comprising: (a) from 49.5 wt % to 97.95 wt % of at least one homopolycarbonate polymer; (b) from 2.0 wt % to 49.5 wt % of at least one poly(carbonate-siloxane) copolymer in an amount effective to provide a total siloxane content of 1.0 wt% to 5.0 wt% based on the total weight of the thermoplastic composition; and (c) from 0.05 wt % to 1.0 wt % of at least one release agent, wherein the thermoplastic composition exhibits a melt volume flow rate (MVR) of at least 25 cm 3 /10 min, as determined according to ISO 1133 at 300°C using a 1.2 kg load; a ductile/brittle transition temperature of less than or equal to 10 °C as determined in accordance with ISO 180-1A on a molded part having a thickness of 3 mm; and an L* that is less than 30% higher compared to a reference blend without the poly(carbonate-siloxane) copolymer, as measured according to ASTM D1729 on a 3 mm thick metallized plaque in reflectance and specular excluded mode; or wherein the thermoplastic composition exhibits a melt volume flow rate (MVR) of at least 25 cm 3 /10 min, as determined according to ISO 1133 at 300°C using a 1.2 kg load; a ductile/brittle transition temperature of less than or equal to 10 °C as determined in accordance with ISO 180-1A on a molded part having a thickness of 3 mm; and an L* that is less than 10, as measured according to ASTM D1729 on a 3 mm thick metallized plaque in reflectance and specular excluded mode. (a) from 49.5 wt % to 97.95 wt % of at least one homopolycarbonate polymer; (b) from 2.0 wt % to 49.5 wt % of at least one poly(carbonate-siloxane) copolymer in an amount effective to provide a total siloxane content of 1.0 wt% to 5.0 wt% based on the total weight of the thermoplastic composition; and (c) from 0.05 wt % to 1.0 wt % of at least one release agent, wherein the thermoplastic composition exhibits a melt volume flow rate (MVR) of at least 25 cm 3 /10 min, as determined according to ISO 1133 at 300°C using a 1.2 kg load; a ductile/brittle transition temperature of less than or equal to 10 °C as determined in accordance with ISO 180-1A on a molded part having a thickness of 3 mm; and an L* that is less than 30% higher compared to a reference blend without the poly(carbonate-siloxane) copolymer, as measured according to ASTM D1729 on a 3 mm thick metallized plaque in reflectance and specular excluded mode; or wherein the thermoplastic composition exhibits a melt volume flow rate (MVR) of at least 25 cm 3 /10 min, as determined according to ISO 1133 at 300°C using a 1.2 kg load; a ductile/brittle transition temperature of less than or equal to 10 °C as determined in accordance with ISO 180-1A on a molded part having a thickness of 3 mm; and an L* that is less than 10, as measured according to ASTM D1729 on a 3 mm thick metallized plaque in reflectance and specular excluded mode.
Steel material produced by powder metallurgy and having a steel matrix constituted as follows (in wt.%): C: 1.5 - 5.0 % Si: 0.3 - 2.0 %, Mn: 0.3 - 2.0 %, P: 0 - <0.035% S: 0 - <0.35%, N: 0 - <0.1%, Cr: 3.0 - 15.0%, Mo: 0.5 - 2.0 %, V: 6.0 - 18.0 %, respectively optionally one or more elements from the group "Nb, Ni, Co, W", wherein the content of Ni, Co and W is respectively at most 1.0% and the content of Nb is at most 2.0%, residual iron and unavoidable impurities, wherein TiC hard material particles in contents of 2.5 - 30 wt.% are embedded in the steel matrix. respectively optionally one or more elements from the group "Nb, Ni, Co, W", wherein the content of Ni, Co and W is respectively at most 1.0% and the content of Nb is at most 2.0%, residual iron and unavoidable impurities, wherein TiC hard material particles in contents of 2.5 - 30 wt.% are embedded in the steel matrix.
Refrigerated sales cabinet , comprising: a cabinet body providing a refrigerated sales space for storing goods to be presented therein; a door frame having a top post , a bottom post , and at least two upright posts ; wherein at least one of the posts comprises: a main body having a constant cross-section including a rear wall portion and two side portions , respectively extending forwardly from the rear wall portion , the rear wall portion and at least one of the side portions being at least partially in contact with refrigerated air; and a front element having a front portion which is in contact with warmer ambient air; and a hinged door , which is moveable in a swinging motion between an open state providing access to the refrigerated sales space and a closed state shutting the refrigerated sales space ; wherein the hinged door comprises a handle for opening and closing the hinged door ; wherein two hinges for the hinged door are provided at one of the posts close to an upright post ; and wherein the hinged door is configured to abut, in its closed state, only against a side portion of the at least one of the posts . a cabinet body providing a refrigerated sales space for storing goods to be presented therein; a door frame having a top post , a bottom post , and at least two upright posts ; wherein at least one of the posts comprises: a main body having a constant cross-section including a rear wall portion and two side portions , respectively extending forwardly from the rear wall portion , the rear wall portion and at least one of the side portions being at least partially in contact with refrigerated air; and a front element having a front portion which is in contact with warmer ambient air; and a main body having a constant cross-section including a rear wall portion and two side portions , respectively extending forwardly from the rear wall portion , the rear wall portion and at least one of the side portions being at least partially in contact with refrigerated air; and a front element having a front portion which is in contact with warmer ambient air; and a hinged door , which is moveable in a swinging motion between an open state providing access to the refrigerated sales space and a closed state shutting the refrigerated sales space ; wherein the hinged door comprises a handle for opening and closing the hinged door ; wherein two hinges for the hinged door are provided at one of the posts close to an upright post ; and wherein the hinged door is configured to abut, in its closed state, only against a side portion of the at least one of the posts .
A method for manufacturing a circuit wiring by three-dimensional additive manufacturing comprising: a discharging step of discharging a fluid containing a metal particle onto a resin member formed of a resin material ; and a circuit wiring forming step of forming a circuit wiring by heating the fluid containing the metal particle discharged onto the resin member at a heating temperature (C1) to be cured, characterized in that the resin material is a material having a glass transition point (Tg1) higher than the heating temperature (C1), and in the circuit wiring forming step, the heating is performed at the heating temperature (C1) satisfying the following expression (heating temperature (C1) - room temperature) × first linear expansion coefficient (α1) < upper limit value where the first linear expansion coefficient (α1) is the linear expansion coefficient of the resin material at the glass transition point (Tg1) or lower, and the upper limit value indicates an upper limit of expansion of the resin member by the heating in the circuit wiring forming step. a discharging step of discharging a fluid containing a metal particle onto a resin member formed of a resin material ; and a circuit wiring forming step of forming a circuit wiring by heating the fluid containing the metal particle discharged onto the resin member at a heating temperature (C1) to be cured, characterized in that the resin material is a material having a glass transition point (Tg1) higher than the heating temperature (C1), and in the circuit wiring forming step, the heating is performed at the heating temperature (C1) satisfying the following expression (heating temperature (C1) - room temperature) × first linear expansion coefficient (α1) < upper limit value where the first linear expansion coefficient (α1) is the linear expansion coefficient of the resin material at the glass transition point (Tg1) or lower, and the upper limit value indicates an upper limit of expansion of the resin member by the heating in the circuit wiring forming step.
Kit for producing an assembly for packaging and applying a product, notably a cosmetic product, comprising, for the one part, at least one container delimiting at least one internal volume which contains said product and at least one free edge of which defines an opening for accessing the internal volume, said opening being closed off by a temporary closure member that does not have an applicator member, and, for the other part, at least one device for applying said product that is able to be inserted at least partially into the internal volume of the container and comprises at least one applicator member , a stem bearing said applicator member , a gripping member secured to said stem and a wiping member mounted around said stem and fixed removably thereto, said wiping member being not located in the region of the application device containing the applicator member, the gripping member forming a cap configured to replace the temporary closure member so as to form an assembly for packaging and applying the cosmetic product, said gripping member being able to close the opening of said container in a removable manner, the applicator member being situated inside the container when the gripping member closes said opening .