mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a policy, characterized by comprising: determining, by a terminal device, a user equipment, UE, policy used by the terminal device according to first information, wherein the first information comprises: a public land mobile network, PLMN, identity, ID, corresponding to a network where the terminal device registered or camped, wherein a UE policy corresponding to a first PLMN received by the terminal device is applicable to an equivalent PLMN of the first PLMN, wherein the method further comprises: using, by the terminal device, the UE policy corresponding to the first PLMN in a target PLMN, wherein the first PLMN and the target PLMN are equivalent PLMNs, and the target PLMN is a PLMN corresponding to the network where the terminal device registered or camped. determining, by a terminal device, a user equipment, UE, policy used by the terminal device according to first information, wherein the first information comprises: a public land mobile network, PLMN, identity, ID, corresponding to a network where the terminal device registered or camped, wherein a UE policy corresponding to a first PLMN received by the terminal device is applicable to an equivalent PLMN of the first PLMN, wherein the method further comprises: using, by the terminal device, the UE policy corresponding to the first PLMN in a target PLMN, wherein the first PLMN and the target PLMN are equivalent PLMNs, and the target PLMN is a PLMN corresponding to the network where the terminal device registered or camped.
A process for increasing the flame resistance of a polymer comprising preparing a flame retardant material by heating at temperatures of 200°C or higher from 0.01 hour to 20 hours one or more than one compound of formula wherein R is C 1-12 alkyl, C 6-10 aryl, C 7-18 alkylaryl, or C 7-18 arylalkyl, wherein said alkyl, aryl, alkylaryl, or arylalkyl are unsubstituted or are substituted by halogen, hydroxyl, amino, C 1-4 alkylamino, di-C 1-4 alkylamino, C 1-4 alkoxy, carboxy or C 2-5 alkoxycarbonyl; M is a metal, y is a number of from 1 to 4 so that M (+)y is a metal cation where (+)y represents the charge formally assigned to the cation, and p is a number of from 1 to 4 wherein the process for obtaining the flame retardant material comprises: i) preparing an intermediate salt complex by treating one or more phosphonic acid compound with one or more appropriate metal compound to give an intermediate salt complex corresponding to formula comprising multiple values for R and/or M, and then heating the intermediate salt complex at temperatures of 200°C or higher for 0.01 hour to 20 hours; or ii) preparing an intimate salt mixture by combining two or more individual metal phosphonic acid salts of formula which have differing values for R and/or M, and then heating the intimate salt mixture at temperatures of 200°C or higher for 0.01 hour to 20 hours; followed by incorporating the flame retardant material into a polymer resin, R is C 1-12 alkyl, C 6-10 aryl, C 7-18 alkylaryl, or C 7-18 arylalkyl, wherein said alkyl, aryl, alkylaryl, or arylalkyl are unsubstituted or are substituted by halogen, hydroxyl, amino, C 1-4 alkylamino, di-C 1-4 alkylamino, C 1-4 alkoxy, carboxy or C 2-5 alkoxycarbonyl; M is a metal, y is a number of from 1 to 4 so that M (+)y is a metal cation where (+)y represents the charge formally assigned to the cation, and p is a number of from 1 to 4 i) preparing an intermediate salt complex by treating one or more phosphonic acid compound with one or more appropriate metal compound to give an intermediate salt complex corresponding to formula comprising multiple values for R and/or M, and then heating the intermediate salt complex at temperatures of 200°C or higher for 0.01 hour to 20 hours; or ii) preparing an intimate salt mixture by combining two or more individual metal phosphonic acid salts of formula which have differing values for R and/or M, and then heating the intimate salt mixture at temperatures of 200°C or higher for 0.01 hour to 20 hours;
An electronic device of a sliding type, the electronic device comprising: a first cover; a second cover coupled with the first cover and configured to perform a sliding operation and including a camera hole (182_1); a display, an exposed area of which is changed in size in response to the sliding operation of the second cover; a panel support part disposed on one side of a rear surface of the display with respect to a front surface of the display, the panel support part including a sensor hole exposed in response to the sliding operation of the second cover; a rotary shaft configured to make contact with at least part of the panel support part and rotate in response to the sliding operation of the second cover; and a first sensor including a front camera disposed to face in a front direction, at least part of which is disposed under the sensor hole in a state after the sliding operation is performed; and a second sensor including a rear camera disposed to face in a rear direction and aligned with the camera hole (182_1); wherein the second sensor obtains an image of an external subject through the sensor hole and the camera hole (182_1) in a state before the sliding operation is performed, and wherein the second sensor is aligning with the camera hole (182_1) in a state after the sliding operation is performed. a first cover; a second cover coupled with the first cover and configured to perform a sliding operation and including a camera hole (182_1); a display, an exposed area of which is changed in size in response to the sliding operation of the second cover; a panel support part disposed on one side of a rear surface of the display with respect to a front surface of the display, the panel support part including a sensor hole exposed in response to the sliding operation of the second cover; a rotary shaft configured to make contact with at least part of the panel support part and rotate in response to the sliding operation of the second cover; and a first sensor including a front camera disposed to face in a front direction, at least part of which is disposed under the sensor hole in a state after the sliding operation is performed; and a second sensor including a rear camera disposed to face in a rear direction and aligned with the camera hole (182_1); wherein the second sensor obtains an image of an external subject through the sensor hole and the camera hole (182_1) in a state before the sliding operation is performed, and wherein the second sensor is aligning with the camera hole (182_1) in a state after the sliding operation is performed. wherein the second sensor obtains an image of an external subject through the sensor hole and the camera hole (182_1) in a state before the sliding operation is performed, and wherein the second sensor is aligning with the camera hole (182_1) in a state after the sliding operation is performed.
A call processing method, applied to a customized alerting tone server, and comprising: receiving a call request sent by a calling terminal, and forwarding the call request to a called terminal; receiving a called terminal ringing message, and playing a customized alerting tone audio stream and a customized alerting tone video stream to the calling terminal; receiving a called terminal off-hook message, and performing call media resource negotiation and customized alerting tone video resource negotiation with the calling terminal; and the method further characterised by: stopping playing the customized alerting tone audio stream to the calling terminal, and playing the customized alerting tone video stream to the calling terminal. receiving a call request sent by a calling terminal, and forwarding the call request to a called terminal; receiving a called terminal ringing message, and playing a customized alerting tone audio stream and a customized alerting tone video stream to the calling terminal; receiving a called terminal off-hook message, and performing call media resource negotiation and customized alerting tone video resource negotiation with the calling terminal; and the method further characterised by: stopping playing the customized alerting tone audio stream to the calling terminal, and playing the customized alerting tone video stream to the calling terminal.
A load carrier with shelves mounted on pillars and a holder for the reduction of noise from a shelf mounted on the pillars of the load carrier by means of holders, which holder is introduced into complementary slots in the pillars and is configured with a notch having a carrier face by which the holder is able to engage with the slot in such a manner that the holder has bearing on the pillar, characterized in that the holder comprises a resilient element arranged in the notch to the effect that: - the resilient element causes the carrier face to not enter into contact with the pillar when the shelf is not loaded with goods; and that - the resilient element is compressed when a load of goods is loaded onto the shelf and hereby a direct contact is created between the carrier face of the notch and the pillar. - the resilient element causes the carrier face to not enter into contact with the pillar when the shelf is not loaded with goods; and that - the resilient element is compressed when a load of goods is loaded onto the shelf and hereby a direct contact is created between the carrier face of the notch and the pillar.
Tank arrangement, preferably for a motor vehicle, comprising - a tank with at least one opening, - a fastening element, which is fixedly joined to the tank or integrated in the tank, at the opening, and - a flange which is inserted into the opening and which closes the opening, wherein at least one connection opening for the connection of the tank is formed in the flange, or the flange, as a blind flange, completely closes the opening; wherein the flange comprises a closure region (10, 100) which, when the flange is inserted into the opening, can be joined in force-fitting and/or form-fitting fashion to the fastening element; wherein the flange comprises a base and a collar surrounding the base, and the closure region (10, 100) is formed on the collar; wherein the join between fastening element and closure region (10, 100) is formed as a bayonet fastener; characterized in that the flange has stiffening ribs on the collar, on the base and/or in the closure region (10, 100). - a tank with at least one opening, - a fastening element, which is fixedly joined to the tank or integrated in the tank, at the opening, and - a flange which is inserted into the opening and which closes the opening, wherein the join between fastening element and closure region (10, 100) is formed as a bayonet fastener; characterized in that the flange has stiffening ribs on the collar, on the base and/or in the closure region (10, 100).
A tunable lighting system, comprising: a series connected string of a white LED and a first non-white color LED, the first non-white color of light being one of red, amber and orange; a first driver connected for applying a controllable drive current to the series connected string of LEDs to drive the white LED and the first non-white color LED together in common; at least one second non-white color LED, the second non-white color of light being different from the first non-white color of light; a second driver connected for applying a controllable drive current to the at least one second non-white color LED; an input for receiving a user input relating to a selection of a spectral characteristic for a light output of the tunable lighting system; and a microcontroller having a first control channel output connected to control the first driver and a second control channel output connected to control the second driver, wherein the microcontroller is configured to selectively operate the drivers (21a, 21c) via the control output channels in response to the received user input to cause combined light from the white and non-white LEDs to produce the selected spectral characteristic for the light output of the tunable lighting system. a series connected string of a white LED and a first non-white color LED, the first non-white color of light being one of red, amber and orange; a first driver connected for applying a controllable drive current to the series connected string of LEDs to drive the white LED and the first non-white color LED together in common; at least one second non-white color LED, the second non-white color of light being different from the first non-white color of light; a second driver connected for applying a controllable drive current to the at least one second non-white color LED; an input for receiving a user input relating to a selection of a spectral characteristic for a light output of the tunable lighting system; and a microcontroller having a first control channel output connected to control the first driver and a second control channel output connected to control the second driver, wherein the microcontroller is configured to selectively operate the drivers (21a, 21c) via the control output channels in response to the received user input to cause combined light from the white and non-white LEDs to produce the selected spectral characteristic for the light output of the tunable lighting system.
Blade for a cutting instrument, for medical use, characterized by a first ceramic layer, a second ceramic layer and a heating device, which is arranged between the first ceramic layer and the second ceramic layer, characterized in that at least one fluid channel is formed between the first ceramic layer and the second ceramic layer, wherein the fluid channel has at least one opening, which opening is configured to make possible extraction of fluids by suction or else also introduction of flushing medium or drugs in the region of the blade.
Method of inductive current transmission by means of at least one transmission coil subjected with an electrical power by an amplifier, the amplifier being operated in a zero-voltage switching and zero current switching mode, the amplifier being a class D amplifier that is readjusted by a sequence control, the sequence control generating pulses of presetable pulse widths as square-wave signals, and a presetable number of pulses being divided into equally dimensioned intervals, and the sequence control generating a lower number of pulses than the preseted number of pulses in the interval for power control of the amplifier, a pulse width modulation in case of class D amplifiers not being intended for power control, the pulse width modulation exclusively being intended for tuning an amplifier mode of class DE, for zero voltage switching and for zero current switching, wherein it is provided for power control that the square-wave signals are divided into equally dimensioned intervals and that the sequence control generates a presetable number of pulses in the interval, corresponding to a thinning out, for power control of the amplifier, the amplifier having a half bridge having two electronic switches, a series resonant circuit and two capacities assigned to the electronic switches, and that the sequence control generates two square-wave signals being phase-shifted by a half period for controlling the electronic switches, the pulse width of which is dimensioned such that a discharging capacity is discharged exactly when the following square-wave signal is present, the half bridge being short-circuited one-sidedly for a decay of the half bridge.
An implantable device that monitors a pressure of fluid within an inflatable portion of a gastric band, the implantable device comprising: a tube (104, 204, 304, 404) defining a lumen and having a first end and a second end, the second end adapted to be connected to the inflatable portion of the gastric band for allowing the fluid to flow through the lumen; and a pressure sensor (108, 208, 308, 408, 550), wherein the pressure sensor (108, 208, 308, 408, 550) is configured to sense the pressure of the fluid within the inflatable portion of the gastric band, wherein the pressure sensor (108, 208, 308, 408, 550) is configured to transmit a pressure signal based on the pressure to a microcontroller, characterized in that the pressure sensor (108, 208, 308, 408, 550) is positioned within at least one of the lumen or the tube (104, 204, 304, 404), wherein the pressure sensor (108, 208, 308, 408, 550) comprises a rigid housing (206, 552) conferring strain relief upon at least a portion of the tube (104, 204, 304, 404), and wherein the pressure sensor (108, 208, 308, 408, 550) shields at least a portion of the tube (104, 204, 304, 404) from puncture by a needle. a tube (104, 204, 304, 404) defining a lumen and having a first end and a second end, the second end adapted to be connected to the inflatable portion of the gastric band for allowing the fluid to flow through the lumen; and a pressure sensor (108, 208, 308, 408, 550), wherein the pressure sensor (108, 208, 308, 408, 550) is configured to sense the pressure of the fluid within the inflatable portion of the gastric band, wherein the pressure sensor (108, 208, 308, 408, 550) is configured to transmit a pressure signal based on the pressure to a microcontroller, characterized in that the pressure sensor (108, 208, 308, 408, 550) is positioned within at least one of the lumen or the tube (104, 204, 304, 404), wherein the pressure sensor (108, 208, 308, 408, 550) comprises a rigid housing (206, 552) conferring strain relief upon at least a portion of the tube (104, 204, 304, 404), and wherein the pressure sensor (108, 208, 308, 408, 550) shields at least a portion of the tube (104, 204, 304, 404) from puncture by a needle.
A process for producing a green body, wherein a) a layer containing a ceramic, glass-ceramic or glass powder is formed on a substrate, wherein the layer is formed by applying the powder on the substrate or the previously formed layer and subsequently levelling the applied powder, b) at least a part of the above-mentioned layer is coated with at least one liquid solidifying composition which contains at least from 0.01 to 99.98% by weight of a dissolved or liquid organometallic compound, wherein the same has at least one atom which is not C, Si, H, O or N, and this atom is bonded to at least one organic moiety, from 0.01 to 20% by weight of an organic binding agent, from 0.01 to 99.98% by weight of a solvent or dispersing agent, wherein the solidifying composition is applied with the print head of an inkjet printer, a microdispenser, a micro-feeder, a piezo print head or a freely programmable dosing system, and wherein the solidifying composition does not contain solids, c) steps a) and b) are repeated at least once, d) the solvent or dispersing agent is removed at least partially or completely to form a green body, and e) unbonded ceramic powder is removed, whereby the green body is exposed. a) a layer containing a ceramic, glass-ceramic or glass powder is formed on a substrate, wherein the layer is formed by applying the powder on the substrate or the previously formed layer and subsequently levelling the applied powder, b) at least a part of the above-mentioned layer is coated with at least one liquid solidifying composition which contains at least from 0.01 to 99.98% by weight of a dissolved or liquid organometallic compound, wherein the same has at least one atom which is not C, Si, H, O or N, and this atom is bonded to at least one organic moiety, from 0.01 to 20% by weight of an organic binding agent, from 0.01 to 99.98% by weight of a solvent or dispersing agent, wherein the solidifying composition is applied with the print head of an inkjet printer, a microdispenser, a micro-feeder, a piezo print head or a freely programmable dosing system, and wherein the solidifying composition does not contain solids, c) steps a) and b) are repeated at least once, d) the solvent or dispersing agent is removed at least partially or completely to form a green body, and e) unbonded ceramic powder is removed, whereby the green body is exposed.
A compound of the following Formula 1, or a pharmaceutically acceptable salt or stereoisomer thereof: in the Formula 1, R 1 is azetidinyl or pyrrolidinyl and can be substituted with C1-C3 alkyl, R 2 is trifluoromethyl, R 3 represents -(CH 2) m CO 2 H, m is an integer of 0 to 2, and X represents N or C-CN. R 1 is azetidinyl or pyrrolidinyl and can be substituted with C1-C3 alkyl, R 2 is trifluoromethyl, R 3 represents -(CH 2) m CO 2 H, m is an integer of 0 to 2, and X represents N or C-CN.
An expression vector comprising a matrix attachment region element having the nucleotide sequence of SEQ ID NO: 41 or 40, and a simian virus 40 promoter operably linked to a chimeric intron having the nucleotide sequence of SEQ ID NO: 25 and a target gene.
A method for producing a fuel cell electrode sheet consisting of a micro porous sheet and a catalyst layer, comprising the steps of: preparing the micro porous sheet; and preparing the catalyst layer on the micro porous sheet, wherein the step of preparing the micro porous sheet comprises the steps of: applying a MPL ink containing a carbon material and a binder to a supporting sheet; heat-treating the MPL ink; and peeling off the MPL ink from the supporting sheet to obtain the micro porous sheet which is isolated, and the step of preparing the catalyst layer on the micro porous sheet comprising the steps of: applying a catalyst ink containing a catalyst to the micro porous sheet which is isolated; and drying the catalyst ink. preparing the micro porous sheet; and preparing the catalyst layer on the micro porous sheet, wherein the step of preparing the micro porous sheet comprises the steps of: applying a MPL ink containing a carbon material and a binder to a supporting sheet; heat-treating the MPL ink; and peeling off the MPL ink from the supporting sheet to obtain the micro porous sheet which is isolated, and applying a MPL ink containing a carbon material and a binder to a supporting sheet; heat-treating the MPL ink; and peeling off the MPL ink from the supporting sheet to obtain the micro porous sheet which is isolated, and the step of preparing the catalyst layer on the micro porous sheet comprising the steps of: applying a catalyst ink containing a catalyst to the micro porous sheet which is isolated; and drying the catalyst ink. applying a catalyst ink containing a catalyst to the micro porous sheet which is isolated; and drying the catalyst ink.
A method performed by a wireless transmit and receive unit, WTRU, the method comprising: receiving, from a spaceborne satellite, system information that includes a position of, and trajectory parameters about, the spaceborne satellite; determining a position of the WTRU using a global navigation satellite system, GNSS; estimating a propagation delay based on the determined WTRU position and the position of, and the trajectory parameters about, the spaceborne satellite; determining a timing advance, TA, based on the estimated propagation delay; and transmitting a connection request for initial access using the TA. receiving, from a spaceborne satellite, system information that includes a position of, and trajectory parameters about, the spaceborne satellite; determining a position of the WTRU using a global navigation satellite system, GNSS; estimating a propagation delay based on the determined WTRU position and the position of, and the trajectory parameters about, the spaceborne satellite; determining a timing advance, TA, based on the estimated propagation delay; and transmitting a connection request for initial access using the TA.