mhurhangee/patent-ind-claim-en huggingface dataset:
A nail art printing apparatus having a receiving means for the placement of a nail or plurality of nails, the nail art printing apparatus being connectable to an electronic device , the electronic device having an interface means being operably engagable with the nail art printing apparatus , the nail art printing apparatus being operable to apply a plurality of colours and/or designs to one or more natural and/or artificial nails, wherein the nail art printing apparatus has a safety means for preventing injury to a finger or plurality of fingers placed into the receiving means from any mechanisms or electronics of the nail art printing apparatus, wherein the safety means comprises at least one resistance sensor configured to detect any resistance to the movement of one or more moving components of the nail art printing apparatus over and above the normal resistance encountered by the movable components.
A preform having a preform wall comprising a composition comprising: at least one polyester component a transition metal catalyst, and a vegetable oil comprising at least one molecule having a double allylic structure, the double allylic structure being as described in the specification, wherein the at least one polyester component comprises at least one acid unit and at least one diol unit, the concentration of the double allylic structures of the vegetable oil in the composition is greater than 14.0 meq/kg of all of the polyester components, and the preform has an ω value of less than 24 in an equation ω = 1 L ∗ × t × 1000 where L* is a Hunter L* measurement in the range of between 0 and 100 excluding 0 measured 4 times at 90° intervals in an immobilization jig using a Spectrophotometer as described in the specification and t is the thickness of the preform wall in mm. at least one polyester component a transition metal catalyst, and a vegetable oil comprising at least one molecule having a double allylic structure, the double allylic structure being as described in the specification,
A method of operating a rotary machine below a traditional minimum emissions compliance load in a response mode , the rotary machine including a combustor including a first combustion zone and a second combustion zone , said method comprising: i) reducing a fuel split to zero, wherein the fuel split apportions a total flow of fuel to the combustor between the first combustion zone and the second combustion zone ; ii) determining a current operating temperature of the first combustion zone using a digital simulation of the rotary machine ; iii) determining a target operating temperature of the first combustion zone , wherein the target operating temperature enables the rotary machine to operate below the traditional Minimum emissions compliance load (MECL) while still in compliance with emissions standards; iv) channeling a first flow of fuel to the first combustion zone , wherein the first flow of fuel decreases the temperature of the first combustion zone to the target operating temperature; and v) iterating steps i through iv until the rotary machine is operating below the traditional MECL and complying with emission standards. i) reducing a fuel split to zero, wherein the fuel split apportions a total flow of fuel to the combustor between the first combustion zone and the second combustion zone ; ii) determining a current operating temperature of the first combustion zone using a digital simulation of the rotary machine ; iii) determining a target operating temperature of the first combustion zone , wherein the target operating temperature enables the rotary machine to operate below the traditional Minimum emissions compliance load (MECL) while still in compliance with emissions standards; iv) channeling a first flow of fuel to the first combustion zone , wherein the first flow of fuel decreases the temperature of the first combustion zone to the target operating temperature; and v) iterating steps i through iv until the rotary machine is operating below the traditional MECL and complying with emission standards.
Printed circuit board terminal with a housing with two end faces and at least one insertion opening arranged in one of the end faces , through which an electrical conductor can be inserted into the housing in one insertion direction, with a contact element which is arranged in the housing and a clamping spring which is electrically conductively connected to the contact element in the housing for clamping of an inserted electrical conductor against the contact element , and with an actuating element for releasing an inserted electrical conductor, wherein the actuating element is arranged pivotably about a pivot axis on the housing , wherein the actuating element has two arms which are connected by an actuating surface , wherein the pivot axis is arranged in the region of the free ends of the arms , wherein a clamping section of the clamping spring is arranged between the free ends of the arms on the one hand and the actuating surface on the other hand, wherein the arms are arranged parallel to the side surfaces of the housing connecting the two end faces of the housing and engage around the housing on the outside, wherein the actuating surface of the actuating element lies on an end face and the pivot axis of the actuating element in the region of the opposite end face , and wherein the actuating surface of the actuating element lies on the end face opposite the insertion opening .
A headlamp optical assembly, comprising a light collimating element and a lens mount , wherein a cavity suitable for accommodating the light collimating element is formed on the lens mount , engagement structures suitable for engagement with each other are formed in the cavity and on the light collimating element , and the light collimating element is embedded in the cavity by the engagement structures, characterized in that the engagement structures comprise an embedded part provided on an inner peripheral wall of the cavity and an embedded groove provided at a front end of the light collimating element .
A partition plate for a battery module , wherein the partition plate comprises: a first assembling piece , configured to overlay one battery cell of the battery module , wherein the first assembling piece comprises a first body portion (A1) and a first connecting portion (B1) disposed around the first body portion (A1); and a second assembling piece , disposed alongside the first assembling piece , and configured to overlay another battery cell of the battery module , wherein the second assembling piece comprises a second body portion (A2) and a second connecting portion (B2) disposed around the second body portion (A2), wherein the first assembling piece and the second assembling piece are spliced to each other through coordination between the first connecting portion (B 1) and the second connecting portion (B2); and a surface facing away from the battery cell of the partition plate is provided with a channel for accommodating a sampling member . a first assembling piece , configured to overlay one battery cell of the battery module , wherein the first assembling piece comprises a first body portion (A1) and a first connecting portion (B1) disposed around the first body portion (A1); and a second assembling piece , disposed alongside the first assembling piece , and configured to overlay another battery cell of the battery module , wherein the second assembling piece comprises a second body portion (A2) and a second connecting portion (B2) disposed around the second body portion (A2), wherein the first assembling piece and the second assembling piece are spliced to each other through coordination between the first connecting portion (B 1) and the second connecting portion (B2); and a surface facing away from the battery cell of the partition plate is provided with a channel for accommodating a sampling member .
A method for producing asphalt mix, comprising: mixing and heating a fluid asphalt input and an asphalt shingle input in a preliminary mixing unit to melt the asphalt shingle input and produce a molten asphalt ; recirculating the molten asphalt at the preliminary mixing unit ; directing the molten asphalt and a particulate input into a primary mixing unit ; and mixing the molten asphalt with the particulate input to produce an asphalt mix output . mixing and heating a fluid asphalt input and an asphalt shingle input in a preliminary mixing unit to melt the asphalt shingle input and produce a molten asphalt ; recirculating the molten asphalt at the preliminary mixing unit ; directing the molten asphalt and a particulate input into a primary mixing unit ; and mixing the molten asphalt with the particulate input to produce an asphalt mix output .
A method for distributing sensor data, the method comprising: receiving, from a requesting device , a request to access first sensor-collectable data associated with at least one package, wherein the requesting device is authenticated to access the first sensor-collectable data; the method being characterized by : determining whether to prohibit access to the first sensor-collectable data based on second sensor-collectable data of the requesting device indicative of a location, wherein the location is associated with a prohibition on access to the first sensor-collectable data. receiving, from a requesting device , a request to access first sensor-collectable data associated with at least one package, wherein the requesting device is authenticated to access the first sensor-collectable data; the method being characterized by : determining whether to prohibit access to the first sensor-collectable data based on second sensor-collectable data of the requesting device indicative of a location, wherein the location is associated with a prohibition on access to the first sensor-collectable data.
Sack for realising civil engineering works, comprising a sack structure with two main faces defined by two respective equal main expanses of cloth , made with a single cloth of a permeable geotextile material folded into two equal-sized portions and joined over most of their periphery and defining an opening (A) for introducing filling material when in use, the sack comprising at least one expanse of protective cloth having resistance characteristics differing from the main expanses of cloth , the expanse of protective cloth being fastened to the outside of the sack structure so as to substantially cover a single main face thereof, wherein the expanse of protective cloth is an impermeable cloth.
Process of producing a non-ferrous metallic tube, which process comprises a casting stage , in which a cast tube having an outer diameter of 20-70 mm, preferably 35-55 mm, is cast from melt by continuous upward vertical casting process, and the casting stage is followed by at least two drawing stages , which cast tube cast from melt by continuous upward vertical casting process has a wall thickness of 1.0-4.0 mm, preferably 2.0-3.0 mm, characterized in that in the drawing stages drawing direction of the cast tube in at least two each other following drawing stages is opposite to each other
Method for manufacturing a multijunction solar cell device comprising the steps of providing a first engineered substrate comprising a first base layer and a first seed layer and a first zipper layer that facilitates detachment of the first engineered substrate after wafer bonding in a later processing step and that is arranged between the first base layer and the first seed layer ; providing a second engineered substrate comprising a second base layer and a second seed layer and a second zipper layer that facilitates detachment of the second engineered substrate after wafer bonding in a later processing step and that is arranged between the second base layer and the second seed layer ; forming at least one first solar cell subcell layer on the first engineered substrate to obtain a first wafer structure; forming at least one second solar cell subcell layer on the second seed layer of the second engineered substrate to obtain a second wafer structure; and further comprising the following steps subsequently performed in the given order bonding the first wafer structure to the second wafer structure by bonding the at least one first solar cell subcell layer to the at least one second solar cell subcell layer; detaching the second engineered substrate; patterning the at least one first solar cell subcell layer and the at least one second solar cell subcell layer ; bonding a third, temporary, substrate to the patterned at least one second solar cell subcell layer ; detaching the first engineered substrate; and bonding a fourth substrate to the at least one patterned first solar cell subcell layer .
A resistive carbon composite material comprising conductive phases based on carbon black combined with colloidal grades of graphite, a heat resistant polymer binder and a solvent, wherein - the carbon black has a specific surface area of not less than 300-600 m2/g and a particle size of 10 to 50 nm, - the colloidal grades of graphite have a particle size of less than 4 microns, and wherein the heat resistant polymer binder comprises a polyester based on terephthalic acid and adipic or sebacic acid, with ethylene glycol, or diethylene glycol.
A quenching system for a plant for cooling cracked gas of a cracking furnace with liquid as well as gaseous starting materials, comprising a primary heat exchanger or PQE and a secondary heat exchanger or SQE and a tertiary heat exchanger or TQE which are connected in series, characterized in that a transfer-line-exchanger for dual operation or TLX-D is arranged and configured as a tertiary heat exchanger, that the TLX-D is connected in series with the secondary heat exchanger SQE via a TLX-D gas feed line , and that the TLX-D , via a TLX-D feed water drain line with a TLX-D feed water drain line valve installed therein and a TLX-D riser with a TLX-D riser valve arranged therein and a TLX-D downcomer with a TLX-D downcomer valve provided therein, and the SQE , via an SQE downcomer and an SQE riser , are connected to a steam drum which is connected to a feed water line , and that the TLX-D has a TLX-D feed water supply line with a TLX-D feed water supply line valve installed therein, a cooling of the TLX-D with natural circulation is provided via the TLX-D downcomer and the TLX-D riser , and that a cooling of the TLX-D with forced circulation is provided for the TLX-D via the arranged TLX-D feed water supply line and the TLX-D feed water drain line .
A mobile robot comprising: a traveling unit configured to move a main body ; a sensing unit configured to detect a surrounding object while the mobile robot travels; a communication module configured to get input or receive information and to output or transmit information; and a controller configured to perform control to search for an object while the mobile robot travels in an area specified according to area information input or received from the communication module , and to perform control to output or transmit identification information and position information of a detected discovered object through the communication module ; wherein the controller performs control to search for an object specified according to the object information that is input or received from the communication module ; characterized in that : the controller is configured to perform control to compare object information that is newly input or received from the communication module with pre-stored object information and to propose the pre-stored object information through the communication module when the newly input object information is matched with the pre-stored object information. a traveling unit configured to move a main body ; a sensing unit configured to detect a surrounding object while the mobile robot travels; a communication module configured to get input or receive information and to output or transmit information; and a controller configured to perform control to search for an object while the mobile robot travels in an area specified according to area information input or received from the communication module , and to perform control to output or transmit identification information and position information of a detected discovered object through the communication module ; wherein the controller performs control to search for an object specified according to the object information that is input or received from the communication module ;
A climate system for providing air to a cab of a vehicle, the climate system comprising a first conduit , an outlet end of the first conduit being adapted to be arranged inside of the cab , wherein the climate system comprises a pressurized air source , an inlet end of the first conduit being connected to the pressurized air source for supplying compressed air into the cab by means of the first conduit , wherein the first conduit presents a transport air flow cross-sectional area, the first conduit comprising a first nozzle forming the outlet end , wherein the climate system comprises a first fluid circuit (342a-342b) and a first heat exchanger arranged so as for heat to be exchanged between the air supplied by the first conduit from the pressurized air source into the cab , and a fluid in the first fluid circuit (342a-342b), characterized in that the first nozzle presents a nozzle air flow cross-sectional area being larger than the transport air flow cross-sectional area and wherein the first heat exchanger is located inside the first nozzle .
A system, comprising: a marine vibrator configured to generate acoustic output via at least one actuator ; at least one acoustic sensor ; and a control unit configured to iteratively change an actuating signal for the marine vibrator based on measurements by the at least one sensor of the acoustic output and of signal pulses from at least one impulsive seismic signal source; characterized in that , to iteratively change the actuating signal, for each iteration of a plurality of iterations, the control unit is further configured to: leave the actuating signal unchanged in response to an indication of measured signal strength of the signal pulses from at least one impulsive seismic signal source exceeding a specified threshold; and change the actuating signal based on a difference between a desired far-field output signal and the measurements by the at least one sensor in response to the indication not exceeding the specified threshold; wherein to iteratively change the actuating signal, the control unit is configured to adjust the actuating signal to produce the desired far-field output signal within a specified tolerance. a marine vibrator configured to generate acoustic output via at least one actuator ; at least one acoustic sensor ; and a control unit configured to iteratively change an actuating signal for the marine vibrator based on measurements by the at least one sensor of the acoustic output and of signal pulses from at least one impulsive seismic signal source; characterized in that , to iteratively change the actuating signal, for each iteration of a plurality of iterations, the control unit is further configured to: leave the actuating signal unchanged in response to an indication of measured signal strength of the signal pulses from at least one impulsive seismic signal source exceeding a specified threshold; and change the actuating signal based on a difference between a desired far-field output signal and the measurements by the at least one sensor in response to the indication not exceeding the specified threshold; characterized in that , to iteratively change the actuating signal, for each iteration of a plurality of iterations, the control unit is further configured to: leave the actuating signal unchanged in response to an indication of measured signal strength of the signal pulses from at least one impulsive seismic signal source exceeding a specified threshold; and change the actuating signal based on a difference between a desired far-field output signal and the measurements by the at least one sensor in response to the indication not exceeding the specified threshold; wherein to iteratively change the actuating signal, the control unit is configured to adjust the actuating signal to produce the desired far-field output signal within a specified tolerance.
A cover assembly for the truck bed of a pick-up type vehicle, said assembly comprising a motorised rollable curtain formed by a plurality of adjacent transverse panels , which are continuously connected along their transverse length by hinge joints , and an end slat , characterized in that said curtain is coupled at one end to a transverse rotatable shaft to allow winding and unwinding thereon, and in that the end slat comprises one or more electric elements movable with the rollable curtain and connected to a smart-Al control circuit board which is a stationary electric element mounted on a housing box , in such a manner that the electric elements are continuously powered during operation of the cover assembly. characterized in that said curtain is coupled at one end to a transverse rotatable shaft to allow winding and unwinding thereon, and in that the end slat comprises one or more electric elements movable with the rollable curtain and connected to a smart-Al control circuit board which is a stationary electric element mounted on a housing box , in such a manner that the electric elements are continuously powered during operation of the cover assembly.
A method for adjusting information transmission, applied to a base station, the method comprising: determining control resource adjustment information for a target user equipment, UE, the control resource adjustment information being information of control resources adjusted based on original scheduling, characterized by : the original scheduling for the target UE is a portion of all control resource sets, CORESETs, of a bandwidth part, BWP, and the control resource adjustment information is generated by designating a target CORESET within said BWP to which new control resources belong or a part of regions of the target CORESET among all the CORESETs of said BWP; sending the control resource adjustment information to the target UE to enable the target UE to monitor downlink control information, DCI, within a time-frequency range to which the adjusted control resources belong; allocating transmission resources to the target UE according to the control resource adjustment information and a time-frequency resource range for the original scheduling, a frequency range of the transmission resources at least comprising: a frequency range of the adjusted control resources; and performing information transmission with the target UE through the transmission resources. the original scheduling for the target UE is a portion of all control resource sets, CORESETs, of a bandwidth part, BWP, and the control resource adjustment information is generated by designating a target CORESET within said BWP to which new control resources belong or a part of regions of the target CORESET among all the CORESETs of said BWP; sending the control resource adjustment information to the target UE to enable the target UE to monitor downlink control information, DCI, within a time-frequency range to which the adjusted control resources belong; allocating transmission resources to the target UE according to the control resource adjustment information and a time-frequency resource range for the original scheduling, a frequency range of the transmission resources at least comprising: a frequency range of the adjusted control resources; and performing information transmission with the target UE through the transmission resources.