mhurhangee/patent-ind-claim-en huggingface dataset:
A method by a user equipment, UE, the method including: generating, by the UE, a non-access stratum, NAS, ATTACH REQUEST message at the UE, the NAS ATTACH REQUEST message having an attach type associated with establishing an emergency call via a Packet Switched, PS, network; determining, by the UE, a radio resource control, RRC, establishment cause based upon the attach type in the NAS ATTACH REQUEST message, wherein the RRC establishment cause indicates a NAS layer is requesting the establishment of an RRC connection for the emergency call via the PS network; and transmitting, by the UE, an RRC CONNECTION REQUEST message to an evolved node B, eNB, base station to establish the RRC connection, the RRC CONNECTION REQUEST message including the RRC establishment cause, wherein the RRC establishment cause indicates at least one of EPS emergency call or session, PS emergency, and IMS emergency call or session. generating, by the UE, a non-access stratum, NAS, ATTACH REQUEST message at the UE, the NAS ATTACH REQUEST message having an attach type associated with establishing an emergency call via a Packet Switched, PS, network; determining, by the UE, a radio resource control, RRC, establishment cause based upon the attach type in the NAS ATTACH REQUEST message, wherein the RRC establishment cause indicates a NAS layer is requesting the establishment of an RRC connection for the emergency call via the PS network; and transmitting, by the UE, an RRC CONNECTION REQUEST message to an evolved node B, eNB, base station to establish the RRC connection, the RRC CONNECTION REQUEST message including the RRC establishment cause, wherein the RRC establishment cause indicates at least one of EPS emergency call or session, PS emergency, and IMS emergency call or session.
A floor-standing air conditioner comprising: a casing including a first flow path connected to a first blow-out port positioned at an upper portion and a second flow path connected to a second blow-out port positioned at a lower portion; a fan that blows out air from at least one of the first blow-out port and/or the second blow-out port ; a first member that opens or closes the first flow path ; a second member that opens or closes the second flow path ; characterized in that it comprises: a control unit that controls the fan , the first member , and the second member , wherein the control unit is configured to perform a first blowing process of blowing out air from the first blow-out port with the first flow path opened by the first member and the second flow path closed by the second member , and a second blowing process of blowing out air from the second blow-out port with the first flow path closed by the first member and the second flow path opened by the second member , and perform a blow-out port switching process of blowing out air from both the first blow-out port and the second blow-out port during switching between the first blowing process and the second blowing process. a casing including a first flow path connected to a first blow-out port positioned at an upper portion and a second flow path connected to a second blow-out port positioned at a lower portion; a fan that blows out air from at least one of the first blow-out port and/or the second blow-out port ; a first member that opens or closes the first flow path ; a second member that opens or closes the second flow path ; a control unit that controls the fan , the first member , and the second member , wherein the control unit is configured to perform a first blowing process of blowing out air from the first blow-out port with the first flow path opened by the first member and the second flow path closed by the second member , and a second blowing process of blowing out air from the second blow-out port with the first flow path closed by the first member and the second flow path opened by the second member , and perform a blow-out port switching process of blowing out air from both the first blow-out port and the second blow-out port during switching between the first blowing process and the second blowing process. perform a first blowing process of blowing out air from the first blow-out port with the first flow path opened by the first member and the second flow path closed by the second member , and a second blowing process of blowing out air from the second blow-out port with the first flow path closed by the first member and the second flow path opened by the second member , and perform a blow-out port switching process of blowing out air from both the first blow-out port and the second blow-out port during switching between the first blowing process and the second blowing process.
A method for inspecting a customized dental appliance for manufacturing defects, the customized dental appliance comprising a shell formed over a mold and being customized for a dental arch of a specific patient, the method comprising: obtaining one or more images of the customized dental appliance; identifying an identifier of the customized dental appliance; determining, based on the identifier of the customized dental appliance, an intended property for the customized dental appliance that is detectable from an image, wherein the intended property for the customized dental appliance is determined by digitally manipulating a digital model of a mold used during manufacture of the customized dental appliance; determining, from the one or more images, an actual property of the customized dental appliance that is detectable from an image; determining whether there is a manufacturing defect in the customized dental appliance by comparing the intended property for the customized dental appliance with the actual property of the customized dental appliance; and outputting an output associated with the determination of whether there is a manufacturing defect. obtaining one or more images of the customized dental appliance; identifying an identifier of the customized dental appliance; determining, based on the identifier of the customized dental appliance, an intended property for the customized dental appliance that is detectable from an image, wherein the intended property for the customized dental appliance is determined by digitally manipulating a digital model of a mold used during manufacture of the customized dental appliance; determining, from the one or more images, an actual property of the customized dental appliance that is detectable from an image; determining whether there is a manufacturing defect in the customized dental appliance by comparing the intended property for the customized dental appliance with the actual property of the customized dental appliance; and outputting an output associated with the determination of whether there is a manufacturing defect.
A cleaning composition comprising: a base; and an inorganic particulate material having a d 10 of at least 10 μm, a d 90 of no greater than 450 μm, and a d 50 of from 25 μm to 350 μm, wherein the inorganic particulate material is spherical perlite, wherein the spherical perlite is expanded perlite which has not been milled, and comprises microspheres which are substantially closed and hollow, and wherein at least 50 wt. % of the spherical perlite is microspheres; wherein the base comprises a detergent. a base; and an inorganic particulate material having a d 10 of at least 10 μm, a d 90 of no greater than 450 μm, and a d 50 of from 25 μm to 350 μm, wherein the inorganic particulate material is spherical perlite, wherein the spherical perlite is expanded perlite which has not been milled, and comprises microspheres which are substantially closed and hollow, and wherein at least 50 wt. % of the spherical perlite is microspheres; wherein the base comprises a detergent.
A flow straightening structure of a saddle-riding type vehicle, comprising: a silencer which is disposed on a side of a rear wheel (WR) so that at least a part thereof overlaps the rear wheel (WR) in a side view of the vehicle, and which silences exhaust gas discharged from an internal combustion engine (E), wherein the silencer includes the flow straightening structure which forms a traveling wind receiving surface which receives traveling wind, the flow straightening structure is to guide the traveling wind which flows along the traveling wind receiving surface in a predetermined direction, the silencer includes an inclined portion which extends diagonally in a forward and rearward direction of the vehicle and forms the traveling wind receiving surface , and a protruding portion which extends along the inclined portion and protrudes upward from the traveling wind receiving surface to form the flow straightening structure , the silencer extends along an axis (C1), an upper surface portion of the silencer has a rearward and upward inclined portion which is inclined rearward and upward with respect to the axis (C1) in a side view, and a rearward and downward inclined portion which is connected to a rear of the rearward and upward inclined portion and is inclined rearward and downward with respect to the axis (C1) in a side view, and the flow straightening structure is provided in front of the rearward and downward inclined portion , and is provided on the rearward and upward inclined portion . a silencer which is disposed on a side of a rear wheel (WR) so that at least a part thereof overlaps the rear wheel (WR) in a side view of the vehicle, and which silences exhaust gas discharged from an internal combustion engine (E), wherein the silencer includes the flow straightening structure which forms a traveling wind receiving surface which receives traveling wind, the flow straightening structure is to guide the traveling wind which flows along the traveling wind receiving surface in a predetermined direction, the silencer includes an inclined portion which extends diagonally in a forward and rearward direction of the vehicle and forms the traveling wind receiving surface , and a protruding portion which extends along the inclined portion and protrudes upward from the traveling wind receiving surface to form the flow straightening structure , the silencer extends along an axis (C1), an upper surface portion of the silencer has a rearward and upward inclined portion which is inclined rearward and upward with respect to the axis (C1) in a side view, and a rearward and downward inclined portion which is connected to a rear of the rearward and upward inclined portion and is inclined rearward and downward with respect to the axis (C1) in a side view, and the flow straightening structure is provided in front of the rearward and downward inclined portion , and is provided on the rearward and upward inclined portion .
A solenoid comprising: a primary package that is made of a molding resin and covers a solenoid body in which a coil is wound around a bobbin ; the primary package integrally including a disc-shape first covering portion covering the outer peripheral surface and the upper surface of the solenoid body and a secondary package that is made of a molding resin and covers the primary package , characterized in that an upper surface of an outer peripheral edge portion of the disc-shaped first covering portion in the primary package has a plurality of bottomed holes arranged along a circumference and each of the bottomed holes is filled with a part of the molding resin constituting the secondary package . a primary package that is made of a molding resin and covers a solenoid body in which a coil is wound around a bobbin ; the primary package integrally including a disc-shape first covering portion covering the outer peripheral surface and the upper surface of the solenoid body and a secondary package that is made of a molding resin and covers the primary package , characterized in that an upper surface of an outer peripheral edge portion of the disc-shaped first covering portion in the primary package has a plurality of bottomed holes arranged along a circumference and each of the bottomed holes is filled with a part of the molding resin constituting the secondary package .
Method for controlling a fryer comprising a vat , a logic unit and a manual validation interface , the method comprising the following steps: S.1) carrying out a learning frying run comprising the following steps: S.1.1) placing a first batch of food to be fried in a cooking medium contained in the vat , the food to be fried being of a predetermined kind; S.1.2) when the food to be fried reaches a desired frying condition, communicating to the logic unit through the manual validation interface that the food has reached said desired frying condition; S.2) carrying out a successive frying run comprising the following steps: S.2.1) placing a second batch of food to be fried in the cooking medium contained in the vat , the food of the second batch being substantially of the same kind as of the food of the first batch; S.2.2) frying the second batch of food for a frying time determined by the logic unit depending on the desired frying condition signalled through the manual validation interface during the learning frying run. S.1.1) placing a first batch of food to be fried in a cooking medium contained in the vat , the food to be fried being of a predetermined kind; S.1.2) when the food to be fried reaches a desired frying condition, communicating to the logic unit through the manual validation interface that the food has reached said desired frying condition; S.2) carrying out a successive frying run comprising the following steps: S.2.1) placing a second batch of food to be fried in the cooking medium contained in the vat , the food of the second batch being substantially of the same kind as of the food of the first batch; S.2.2) frying the second batch of food for a frying time determined by the logic unit depending on the desired frying condition signalled through the manual validation interface during the learning frying run. S.2.1) placing a second batch of food to be fried in the cooking medium contained in the vat , the food of the second batch being substantially of the same kind as of the food of the first batch; S.2.2) frying the second batch of food for a frying time determined by the logic unit depending on the desired frying condition signalled through the manual validation interface during the learning frying run.
A method of generating ink data including stroke objects that are vector data configured to reproduce paths formed by operating an indicator on a position input sensor of a device, the method comprising: receiving device-dependent user-input data including either one of pen event data of Type 1 data, which includes indicator position data and indicator pressure data, or pen event data of Type 2 data, which includes indicator position data but does not include indicator pressure data; determining (S1202) whether the pen event data includes indicator pressure data or not; if the pen event data includes indicator pressure data, using (S1203) the indicator pressure data of each point of multiple points that form a stroke in the pen event data to derive a velocity parameter (vn) at that point; if the pen event data does not include indicator pressure data, obtaining (S1204) time information at each point of the multiple points and deriving (S1205) the velocity parameter (vn) corresponding to a velocity of each point based on the time information of the point and of one or more adjacent points; deriving (S1207, S1209) one or both of radius data for defining width of the stroke object and transparency data for defining a transparency of the stroke, based on the velocity parameter; and outputting a stroke object including said one or both of radius data and transparency data as device-independent common attribute value(s) of each of multiple points of the stroke object in a predetermined format. receiving device-dependent user-input data including either one of pen event data of Type 1 data, which includes indicator position data and indicator pressure data, or pen event data of Type 2 data, which includes indicator position data but does not include indicator pressure data; determining (S1202) whether the pen event data includes indicator pressure data or not; if the pen event data includes indicator pressure data, using (S1203) the indicator pressure data of each point of multiple points that form a stroke in the pen event data to derive a velocity parameter (vn) at that point; if the pen event data does not include indicator pressure data, obtaining (S1204) time information at each point of the multiple points and deriving (S1205) the velocity parameter (vn) corresponding to a velocity of each point based on the time information of the point and of one or more adjacent points; deriving (S1207, S1209) one or both of radius data for defining width of the stroke object and transparency data for defining a transparency of the stroke, based on the velocity parameter; and outputting a stroke object including said one or both of radius data and transparency data as device-independent common attribute value(s) of each of multiple points of the stroke object in a predetermined format.
Configuration for controlling flow instabilities of a last stage of a steam turbine where rotor blades rotate encircled by a vane carrier , wherein a plurality of passages are located in the vane carrier , such that a fluid is blown through these passages upstream of the rotor blades and arranged to form a flow that impinges onto the rotor blades , characterized in that this flow impinges onto the rotor blades with a negative injection angle between zero and -90 degrees in a direction counter to the rotation of the rotor blades , with zero degrees being axial, characterised by the passages configured and arranged to blow fluid towards a point that is 80% of a height of the last stage rotor blade taken from a base to a tip of the rotor blade .
An array substrate, including a substrate , and a gate drive circuit and a common electrode line arranged above the substrate , wherein the gate drive circuit and the common electrode line are arranged adjacent to each other, and a plurality of grooves are provided in the common electrode line and extend in a same direction; and the common electrode line is segmented into a plurality of common electrode line strips by the plurality of grooves , the common electrode line further includes a connection part , the plurality of common electrode line strips are electrically connected by the connection part at one end of the common electrode line , characterized in that the common electrode line is designed to be structured like a comb.
A method for detecting and/or quantifying a target nucleotide sequence in a sample comprising the steps of: - providing the target nucleotide sequence as a single strand; - hybridizing the single strand target nucleotide sequence with a first probe of single strand nucleic acid and with a second probe of single strand nucleic acid, the first probe being immobilised at one end to a solid support and comprising, at the opposite end, a sequence complementary to a first portion of the target nucleotide sequence , the second probe being marked at one end and comprising, at the opposite end, a sequence complementary to a second portion of target nucleotide sequence , wherein the first portion and the second portion of target nucleotide sequence have 2 to 10 nucleotides in common, so as to form a first probe-target nucleotide sequence- second probe complex; - detecting the first probe-target nucleotide sequence- second probe complex. - providing the target nucleotide sequence as a single strand; - hybridizing the single strand target nucleotide sequence with a first probe of single strand nucleic acid and with a second probe of single strand nucleic acid, the first probe being immobilised at one end to a solid support and comprising, at the opposite end, a sequence complementary to a first portion of the target nucleotide sequence , the second probe being marked at one end and comprising, at the opposite end, a sequence complementary to a second portion of target nucleotide sequence , wherein the first portion and the second portion of target nucleotide sequence have 2 to 10 nucleotides in common, so as to form a first probe-target nucleotide sequence- second probe complex; the first probe being immobilised at one end to a solid support and comprising, at the opposite end, a sequence complementary to a first portion of the target nucleotide sequence , the second probe being marked at one end and comprising, at the opposite end, a sequence complementary to a second portion of target nucleotide sequence , wherein the first portion and the second portion of target nucleotide sequence have 2 to 10 nucleotides in common, so as to form a first probe-target nucleotide sequence- second probe complex; - detecting the first probe-target nucleotide sequence- second probe complex.
An article for a turbine component, comprising: a manifold including an impingement plate , the impingement plate defining a plenum and at least one impingement aperture , the plenum having a plenum surface and the at least one impingement aperture interfacing with the plenum at an intake aperture ; an article wall including at least one external aperture ; a post-impingement cavity disposed between the manifold and the article wall , the post-impingement cavity arranged to receive a fluid from the plenum through the at least one impingement aperture and pass the fluid through the at least one external aperture , wherein at least one of the at least one impingement apertures includes a flow modification structure , the impingement aperture and the flow modification structure defining an exhaust aperture , and characterised in that the exhaust aperture is annular. a manifold including an impingement plate , the impingement plate defining a plenum and at least one impingement aperture , the plenum having a plenum surface and the at least one impingement aperture interfacing with the plenum at an intake aperture ; an article wall including at least one external aperture ; a post-impingement cavity disposed between the manifold and the article wall , the post-impingement cavity arranged to receive a fluid from the plenum through the at least one impingement aperture and pass the fluid through the at least one external aperture , wherein at least one of the at least one impingement apertures includes a flow modification structure , the impingement aperture and the flow modification structure defining an exhaust aperture , and characterised in that the exhaust aperture is annular.