mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a molded article of a thermoplastic elastomer having areas of different density, comprising (a) preparing pellets of a thermoplastic elastomer having a first density by infusing the pellets with a supercritical fluid in a pressurized container, removing the pellets from the container and foaming the pellets by one of (i) immersing the pellets in a heated fluid or (ii) irradiating the pellets with infrared or microwave radiation to make foamed pellets of a first density; (b) preparing pellets of the thermoplastic elastomer having a second density by infusing the pellets with a supercritical fluid in a pressurized container, removing the pellets from the container and foaming the pellets by one of (i) immersing the pellets in a heated fluid or (ii) irradiating the pellets with infrared or microwave radiation to make foamed pellets of a second density different from the first density; (c) placing foamed pellets having the first density in a first area of a mold and placing foamed pellets having the second density in a second area of the mold and molding the pellets to form the molded article. (a) preparing pellets of a thermoplastic elastomer having a first density by infusing the pellets with a supercritical fluid in a pressurized container, removing the pellets from the container and foaming the pellets by one of (i) immersing the pellets in a heated fluid or (ii) irradiating the pellets with infrared or microwave radiation to make foamed pellets of a first density; (b) preparing pellets of the thermoplastic elastomer having a second density by infusing the pellets with a supercritical fluid in a pressurized container, removing the pellets from the container and foaming the pellets by one of (i) immersing the pellets in a heated fluid or (ii) irradiating the pellets with infrared or microwave radiation to make foamed pellets of a second density different from the first density; (c) placing foamed pellets having the first density in a first area of a mold and placing foamed pellets having the second density in a second area of the mold and molding the pellets to form the molded article.
A process for preparing the monohydrate of the compound of formula by treating the compound of the formula with the compound of formula in a reaction mixture and thereafter the solved compound of the formula is treated with an acid to form a salt of the compound of the formula which precipitates from the solution containing the solved compound of the formula, and thereafter said salt of the compound of the formula is then treated with an aqueous basic solution to precipitate the monohydrate of the compound of the formula.
A method in a field unit for transmitting data payload (42a, 42b, 42c) to a base station, the method comprising transmitting a first signal in a first time slot over a reverse link, wherein the first signal indicates timing information and power level information or a request for traffic resources, wherein the reverse link includes at least five logical channels comprising a heartbeat standby channel, a heartbeat request active channel, an access channel and multiple traffic channels, and wherein each reverse link traffic channel supports variable data rates, and the field unit (42a, 42b, 42c) has at least three distinct states, wherein in the control hold state the field unit is not requesting traffic channels, in the request to go active state the field unit is requesting to transmit data on a traffic channel over a reverse link, and in the traffic state traffic data is transmitted by the field unit, and characterized in that, in the control hold state, a difference in power levels and repetition of pulses of the heartbeat standby channel signal and heartbeat with request active channel signal is used to indicate a request to go from the control hold state to the request to go active state.
A compressor comprising a compression mechanism, a motor coupled with the compression mechanism via a driving shaft, and a casing for accommodating the compression mechanism and the motor, wherein the motor includes a motor stator, and a motor rotor disposed inside the motor stator and coupled to the driving shaft, the compression mechanism is spot-joined to the casing via a plurality of compression mechanism-side spot-joined portions formed by spot welding and, the motor stator is spot-joined to the casing via a plurality of spot-joined portions (6a, 6b) formed by spot welding and provided at different positions in a circumferential direction of the driving shaft, characterized in that all of the plurality of the motor-stator spot-joined portions (6a, 6b) formed by spot welding are provided at positions different from the compression mechanism-side spot-joined portions in the circumferential direction of the driving shaft and never at the same position in the circumferential direction of the driving shaft.
Method for gravity separation of plastics particles, in which a separation gas is guided upwardly in the counter stream against the plastic particles to be separated, wherein the separation gas is at least partially ionized and the plastic particles are separated by air separation into a fine fraction and a coarse fraction, characterized in that the plastic particles are plastic flakes.
A first deployment node (103, 203, 303) connectable to a plurality of neighboring deployment nodes (101, 102, 104, 301, 302, 304) of a distributed deployment network for distributed deployment of a software application separable into a plurality of executable software modules, the first deployment node comprising a hardware arrangement, a deployment operating system, and a deployment node interface; the deployment node interface adapted to establish a connection between the first deployment node and the plurality of neighboring deployment characterized by the hardware arrangement adapted, for each of the neighboring deployment nodes, to keep a node rating value associated with the neighboring deployment node and at least one group rating value associated with a group of deployment nodes comprising the neighboring deployment node; the deployment operating system adapted to transfer a first executable software module from the first deployment node to a selected neighboring deployment node for deployment, wherein the deployment operating system is further adapted to select the neighbouring deployment node among the neighboring deployment nodes based on the node rating values and the group rating values of the neighboring deployment nodes; the deployment operating system adapted to perform an assessment of the deployment of the first executable software module at the selected neighboring deployment node; the deployment operating system adapted to update the node rating value and the group rating value associated with the selected neighboring deployment node based on the assessment; and the deployment operating system adapted to transmit the updated node rating value and the updated group rating value associated with the selected neighboring deployment node to the plurality of neighboring deployment nodes.
A method for quantifying the amount of immunogenic hemagglutinin in a sample comprising the steps of: a) providing a sample comprising immunogenic HA, inactive HA, or combination thereof; b) subjecting the sample to biological proteolysis, wherein the inactive HA is digested and the immunogenic HA remains undigested; c) separating the digested inactive HA from the undigested immunogenic HA in the sample; d) subjecting the undigested immunogenic HA to analytical proteolysis, so as to provide fragments of digested immunogenic HA; e) carrying out a liquid chromatography-electrospray ionization-tandem mass spectrometry (LC-ESI-MS) in the presence of at least one labeled reference HA peptide, to quantify the amount of immunogenic HA in the sample. a) providing a sample comprising immunogenic HA, inactive HA, or combination thereof; b) subjecting the sample to biological proteolysis, wherein the inactive HA is digested and the immunogenic HA remains undigested; c) separating the digested inactive HA from the undigested immunogenic HA in the sample; d) subjecting the undigested immunogenic HA to analytical proteolysis, so as to provide fragments of digested immunogenic HA; e) carrying out a liquid chromatography-electrospray ionization-tandem mass spectrometry (LC-ESI-MS) in the presence of at least one labeled reference HA peptide, to quantify the amount of immunogenic HA in the sample.
Method for installing an electrical installation in a wall which comprises two parallel panel-shaped components (2, 3) spaced apart from each other, an inner space arranged between the components, and a retaining structure located in the inner space, wherein a first of the two components is firstly attached to the retaining structure and initial installation steps are then performed, after which the second component is attached to the retaining structure and finally the remaining installation steps are carried out, having the following method steps: (a) Before the attachment of the second component, a fixing element is anchored to the first component at an installation position, (b) In the inner space bounded only by the first component, at least one connection cable is laid such that an end section of the connection cable is anchored to the fixing element, (c) A marking through-hole is made in the second component from the direction of the inner space at the position of the fixing element, in order to mark the installation position on an outer side of the second component, (d) After the attachment of the second component an installation through-hole is made in the second component at the installation location, (e) an end of the connection cable assigned to the end section is grasped through the installation through hole and the electrical installation is completed, characterized by the following method steps: (f) the fixing element is anchored to the first component such that said element is visible on an outer side of the first component facing away from the inner space and g) the marking through-hole in the second component is made through the inner space from the outer side of the first component. (a) Before the attachment of the second component, a fixing element is anchored to the first component at an installation position, (b) In the inner space bounded only by the first component, at least one connection cable is laid such that an end section of the connection cable is anchored to the fixing element, (c) A marking through-hole is made in the second component from the direction of the inner space at the position of the fixing element, in order to mark the installation position on an outer side of the second component, (d) After the attachment of the second component an installation through-hole is made in the second component at the installation location, (e) an end of the connection cable assigned to the end section is grasped through the installation through hole and the electrical installation is completed, (f) the fixing element is anchored to the first component such that said element is visible on an outer side of the first component facing away from the inner space and g) the marking through-hole in the second component is made through the inner space from the outer side of the first component.
A wire-cut electric discharge machine which machines a workpiece by applying a voltage intermittently in a machining gap between a wire electrode and the workpiece to generate electric discharge, and controls a relative feeding speed of the wire electrode with respect to the workpiece based on an average machining-gap voltage during machining, characterized in that said wire-cut electric discharge machine comprises: a machining result input unit for inputting at least size error data obtained by subtracting a target size from a measured size of a previously machined workpiece; a correction gain memory device for storing correction gains corresponding to wire electrode diameters and/or workpiece materials; and a first correction coefficient calculating unit for calculating a correction coefficient by dividing the size error data by the correction gain corresponding to the wire electrode diameter and/or workpiece material to obtain a calculation result, and by adding one to the calculation result; wherein the relative feeding speed of the wire electrode with respect to the workpiece is controlled based on an adjusted value obtained by multiplying the average measured machining-gap voltage value during machining by the correction coefficient calculated by the first correction coefficient calculating unit. a machining result input unit for inputting at least size error data obtained by subtracting a target size from a measured size of a previously machined workpiece; a correction gain memory device for storing correction gains corresponding to wire electrode diameters and/or workpiece materials; and a first correction coefficient calculating unit for calculating a correction coefficient by dividing the size error data by the correction gain corresponding to the wire electrode diameter and/or workpiece material to obtain a calculation result, and by adding one to the calculation result; wherein the relative feeding speed of the wire electrode with respect to the workpiece is controlled based on an adjusted value obtained by multiplying the average measured machining-gap voltage value during machining by the correction coefficient calculated by the first correction coefficient calculating unit.
A method for use in a device comprising: monitoring registration messages transmitted from a communication network to the device, the registration messages including registration information used to register the device with the communication network; determining a time zone for the device based on at least some of the registration information; and when determining the time zone for the device based on at least some of the registration information is not possible, determining the time zone based on a short message service message originated from the device. monitoring registration messages transmitted from a communication network to the device, the registration messages including registration information used to register the device with the communication network; determining a time zone for the device based on at least some of the registration information; and when determining the time zone for the device based on at least some of the registration information is not possible, determining the time zone based on a short message service message originated from the device.
A heater, comprising: a heating member having a mounting surface, wherein the mounting surface is an uneven low surface energy structure, and the low surface energy structure is at least one of a micron structure and a nanostructure; and characterized by a covering layer covering the mounting surface, wherein the ratio of the thickness of the portion of the covering layer with the maximum thickness to the thickness of the portion of the covering layer with the minimum thickness is less than or equal to 3. a heating member having a mounting surface, wherein the mounting surface is an uneven low surface energy structure, and the low surface energy structure is at least one of a micron structure and a nanostructure; and characterized by a covering layer covering the mounting surface, wherein the ratio of the thickness of the portion of the covering layer with the maximum thickness to the thickness of the portion of the covering layer with the minimum thickness is less than or equal to 3.
A method performed by a proxy node of transferring messages between base stations (20, 30) of a wireless telecommunications network, said method comprising the steps of: receiving an X2 Application Protocol message within an incoming X2 interface IP packet over an X2 interface from a source base station; extracting, from said X2 Application Protocol message, target base station identity information identifying a target base station; routing said X2 Application Protocol message to said target base station, said X2 Application Protocol message being carried within an outgoing X2 interface IP packet having a target IP address derived from said target base station identity information; and maintaining a direct X2 Application Protocol association between said source base station and said target base station, said X2 Application Protocol association is being carried over two SCTP associations, one from said source base station to said proxy node and one from said proxy node to said target base station. receiving an X2 Application Protocol message within an incoming X2 interface IP packet over an X2 interface from a source base station; extracting, from said X2 Application Protocol message, target base station identity information identifying a target base station; routing said X2 Application Protocol message to said target base station, said X2 Application Protocol message being carried within an outgoing X2 interface IP packet having a target IP address derived from said target base station identity information; and maintaining a direct X2 Application Protocol association between said source base station and said target base station, said X2 Application Protocol association is being carried over two SCTP associations, one from said source base station to said proxy node and one from said proxy node to said target base station.
A bus bar for a printed wiring board assembly, comprising: a distribution portion; and characterized by a supply portion with a socket contact, wherein the socket contact is monolithically formed with the distribution portion, the socket contact being in electrical communication with the distribution portion without an intervening joint to limit electrical resistance between a supply plug seated in the socket contact and the distribution portion of the bus bar. a distribution portion; and characterized by a supply portion with a socket contact, wherein the socket contact is monolithically formed with the distribution portion, the socket contact being in electrical communication with the distribution portion without an intervening joint to limit electrical resistance between a supply plug seated in the socket contact and the distribution portion of the bus bar.
A rotor of a rotating electric machine for vehicle, the rotor comprising: a pair of rotor cores (9A, 9B) each having a plurality of claw-shaped magnetic poles at an outer circumference thereof, the pair of rotor cores (9A, 9B) being provided so as to be opposed to each other in an axial direction such that the claw-shaped magnetic poles of the pair of rotor cores (9A, 9B) are engaged with each other; a rotor shaft to which the pair of rotor cores (9A, 9B) are fixed; a bar-shaped permanent magnet provided at a magnet holding portion formed by the claw-shaped magnetic poles adjacent to each other in a circumferential direction; and cooling fans (16A, 16B, 16C) fixed to axial-direction end surfaces of the pair of rotor cores (9A, 9B), wherein the cooling fan (16B, 16C) fixed to the axial-direction end surface of at least one of the pair of rotor cores (9A, 9B) is located so as not to interfere with an insertion path through which the permanent magnet is inserted, which is an area on an extension line in a longitudinal direction of the permanent magnet, a longest distance R3 from a center of the rotor shaft to the outer periphery of a blade of the cooling fan is set to be greater than the shortest distance from the center of the rotor shaft to the insertion path of the permanent magnet, wherein the cooling fan (16B, 16C) is arranged so as to avoid the insertion path of the permanent magnet a pair of rotor cores (9A, 9B) each having a plurality of claw-shaped magnetic poles at an outer circumference thereof, the pair of rotor cores (9A, 9B) being provided so as to be opposed to each other in an axial direction such that the claw-shaped magnetic poles of the pair of rotor cores (9A, 9B) are engaged with each other; a rotor shaft to which the pair of rotor cores (9A, 9B) are fixed; a bar-shaped permanent magnet provided at a magnet holding portion formed by the claw-shaped magnetic poles adjacent to each other in a circumferential direction; and cooling fans (16A, 16B, 16C) fixed to axial-direction end surfaces of the pair of rotor cores (9A, 9B), wherein the cooling fan (16B, 16C) fixed to the axial-direction end surface of at least one of the pair of rotor cores (9A, 9B) is located so as not to interfere with an insertion path through which the permanent magnet is inserted, which is an area on an extension line in a longitudinal direction of the permanent magnet, a longest distance R3 from a center of the rotor shaft to the outer periphery of a blade of the cooling fan is set to be greater than the shortest distance from the center of the rotor shaft to the insertion path of the permanent magnet, wherein the cooling fan (16B, 16C) is arranged so as to avoid the insertion path of the permanent magnet
A hydrous kaolin pigment having a GE Brightness of at least 90.0 and a steepness (d 30 /d 70 x 100) of at least 39, and either (i) a Brookfield viscosity, measured at 20 rpm and at less than or equal to 68 % solids, of 200 to 800 centipoise, or (ii) a Hercules viscosity parameter, measured at 18 dynes and at less than or equal to 68 % solids, of 150 to 800 rpm.
A lighting device, comprising: a first sleeve and a second sleeve, and a light emitting arrangement having a plurality of light sources, which is located inside at least one of the first and second sleeves (110a; 100b), characterized in that the lighting device further comprises a first set of at least two interconnecting seams connecting the first and second sleeves (110a; 110b) to each other, wherein the interconnecting seams are arranged in-between the first sleeve and the second sleeve and extend in a transverse direction in relation to a longitudinal direction of the first and second sleeves (110a; 110b). a first sleeve and a second sleeve, and a light emitting arrangement having a plurality of light sources, which is located inside at least one of the first and second sleeves (110a; 100b), characterized in that the lighting device further comprises a first set of at least two interconnecting seams connecting the first and second sleeves (110a; 110b) to each other, wherein the interconnecting seams are arranged in-between the first sleeve and the second sleeve and extend in a transverse direction in relation to a longitudinal direction of the first and second sleeves (110a; 110b).
An expression vector comprising a sequence encoding a short hairpin RNA molecule (shRNA) comprising (i) a first sequence of 21, 22 or 23 nucleotides fully complementary to a sequence in a target gene, having a sequence other than the mature sequence of miR-451, and (ii) a second sequence directly following the first sequence, wherein the second sequence is fully complementary to the sequence of the first 17 or 18 nucleotides counted from the 5' end of the first sequence, wherein the last 4 nucleotides of the first sequence form a loop region in the shRNA, for use in attenuating expression of the target gene in a sequence specific manner in a mammalian cell. (i) a first sequence of 21, 22 or 23 nucleotides fully complementary to a sequence in a target gene, having a sequence other than the mature sequence of miR-451, and (ii) a second sequence directly following the first sequence, wherein the second sequence is fully complementary to the sequence of the first 17 or 18 nucleotides counted from the 5' end of the first sequence, wherein the last 4 nucleotides of the first sequence form a loop region in the shRNA, for use in attenuating expression of the target gene in a sequence specific manner in a mammalian cell.
An end cap for a profile housing, which can be fixed in a cabinet system, wherein the fixing of the profile housing, on which the end cap is arranged, is effected by means of a fixing means (2, 17), which cooperates with the end cap, characterized in that, on its side, which faces away from the profile housing, the end cap encompasses at least one guide, through which at least one fixing means (2, 17) can be arranged on the end cap.