mhurhangee/patent-ind-claim-en huggingface dataset:
A stand-holder for a portable terminal, the stand-holder comprising: a support portion fixed to a rear surface of the portable terminal; a holding portion ; and a coupling portion configured to couple the support portion and the holding portion , and having both ends, wherein one of the both ends of the coupling portion is rotatably coupled to the support portion to be rotatable relative to the support portion, and the other end of the coupling portion is coupled to the holding portion to enable the holding portion to be rotated, wherein the stand-holder for the portable terminal has an unfolded state and a folded state, characterized in that in the folded state the coupling portion and the support portion are received in the holding portion and in the unfolded state one end of the holding portion is in contact with a first position of a rear surface of the portable terminal, and the other end of the holding portion is spaced apart from a second position of the rear surface of the portable terminal, when a state of the stand-holder changes from the folded state to the unfolded state, the coupling portion is unfolded and inclined toward the first position of the rear surface in contact with the portable terminal and the holding portion rotates such that the one end of the holding portion is inclined toward the first position of the rear surface of the portable terminal and such that, when a finger is inserted between the support portion and the holding portion in the unfolded state, the one end of the holding portion presses the finger toward the rear surface of the portable terminal. a support portion fixed to a rear surface of the portable terminal; a holding portion ; and a coupling portion configured to couple the support portion and the holding portion , and having both ends, wherein one of the both ends of the coupling portion is rotatably coupled to the support portion to be rotatable relative to the support portion, and the other end of the coupling portion is coupled to the holding portion to enable the holding portion to be rotated, wherein the stand-holder for the portable terminal has an unfolded state and a folded state, characterized in that in the folded state the coupling portion and the support portion are received in the holding portion and in the unfolded state one end of the holding portion is in contact with a first position of a rear surface of the portable terminal, and the other end of the holding portion is spaced apart from a second position of the rear surface of the portable terminal, when a state of the stand-holder changes from the folded state to the unfolded state, the coupling portion is unfolded and inclined toward the first position of the rear surface in contact with the portable terminal and the holding portion rotates such that the one end of the holding portion is inclined toward the first position of the rear surface of the portable terminal and such that, when a finger is inserted between the support portion and the holding portion in the unfolded state, the one end of the holding portion presses the finger toward the rear surface of the portable terminal.
A combustor panel comprising: an attachment feature having a central longitudinal axis and configured to extend through a combustor shell , wherein the attachment feature comprises: a tip portion configured to be disposed outward of a diffuser-facing side of the combustor shell ; and a base portion configured to be disposed between a cold side of the combustor panel and the diffuser-facing side of the combustor shell ; wherein: the base portion comprises a plurality of base legs extending from the cold side of the combustor panel , wherein the plurality of base legs are circumferentially distributed around the central longitudinal axis of the attachment feature ; characterised in that the plurality of base legs extend from a tapered portion of the base portion of the attachment feature ; wherein the tapered portion converges toward the central longitudinal axis in a direction from the tip portion toward the base portion ; wherein the tapered portion has a conical shape; and the attachment feature and the plurality of base legs are integrally formed with the combustor panel . an attachment feature having a central longitudinal axis and configured to extend through a combustor shell , wherein the attachment feature comprises: a tip portion configured to be disposed outward of a diffuser-facing side of the combustor shell ; and a base portion configured to be disposed between a cold side of the combustor panel and the diffuser-facing side of the combustor shell ; wherein: the base portion comprises a plurality of base legs extending from the cold side of the combustor panel , wherein the plurality of base legs are circumferentially distributed around the central longitudinal axis of the attachment feature ; a tip portion configured to be disposed outward of a diffuser-facing side of the combustor shell ; and a base portion configured to be disposed between a cold side of the combustor panel and the diffuser-facing side of the combustor shell ; wherein: the base portion comprises a plurality of base legs extending from the cold side of the combustor panel , wherein the plurality of base legs are circumferentially distributed around the central longitudinal axis of the attachment feature ; the plurality of base legs extend from a tapered portion of the base portion of the attachment feature ; wherein the tapered portion converges toward the central longitudinal axis in a direction from the tip portion toward the base portion ; wherein the tapered portion has a conical shape; and the attachment feature and the plurality of base legs are integrally formed with the combustor panel .
A fitting for a sliding door or a sliding folding door, having a guide rail , along which at least one runner, which is guided on tracks of the guide rail , is movable, wherein at least one recess , on which a stop for a runner is fixed, is provided on the guide rail , wherein the stop is fixed on a cover , which engages at least partially in the recess , characterized in that the cover has a projection, which fills the recess in an essentially formfitting manner and that the guide rail is enclosed between the stop and the cover by clamping, whereby the cover completely covers the opening of the recess and the cover has an edge , which bears on the guide rail around the recess .
Method for applying a predetermined ink dot pattern to a surface of an ophthalmic lens or of an ophthalmic lens mold , the method comprising the steps of: - providing a plurality of jet nozzles; - applying the predetermined ink dot pattern to the surface of the ophthalmic lens or of the ophthalmic lens mold using the plurality of jet nozzles, wherein applying the predetermined ink dot pattern to the surface of the ophthalmic lens or of the ophthalmic lens mold comprises applying each individual ink dot of the predetermined ink dot pattern by using at least two different jet nozzles of the plurality of jet nozzles, characterized in that applying each individual ink dot of the predetermined ink dot pattern is performed by applying per individual ink dot a total amount of ink larger than the amount of ink required for each individual ink dot to achieve a predetermined contrast. - providing a plurality of jet nozzles; - applying the predetermined ink dot pattern to the surface of the ophthalmic lens or of the ophthalmic lens mold using the plurality of jet nozzles,
A method for applying reference signal configuration information, characterized by : acquiring (S 101), by a base station, the reference signal configuration information, wherein the reference signal configuration information comprises at least one of: reference signal configuration information of a local cell, reference signal configuration information of a neighboring cell, or reference signal configuration information of a terminal in the neighboring cell; and performing (S103), by the base station a transmission or a measurement according to the acquired reference signal configuration information; wherein the base station receives a measurement result and/or a corresponding measurement resource information reported by the terminal after the terminal performs a measurement based on received reference signal configuration information. acquiring (S 101), by a base station, the reference signal configuration information, wherein the reference signal configuration information comprises at least one of: reference signal configuration information of a local cell, reference signal configuration information of a neighboring cell, or reference signal configuration information of a terminal in the neighboring cell; and performing (S103), by the base station a transmission or a measurement according to the acquired reference signal configuration information; wherein the base station receives a measurement result and/or a corresponding measurement resource information reported by the terminal after the terminal performs a measurement based on received reference signal configuration information.
Process for building tyres, comprising: arranging an expandable toroidal forming drum , comprising circumferentially consecutive sectors that are radially movable, each comprising a central body and a pair of interchangeable inserts , each removably engaged at a respective axial end edge of the central body ; expanding the forming drum from a contracted condition in which said sectors are moved close to a geometric rotation axis (X-X) of the forming drum , to an expanded condition in which the sectors are radially moved away from said geometric axis (X-X) in order to define a radially outer deposition surface (S) extending between two axially opposite edges of the forming drum ; applying, on the deposition surface (S) of the forming drum , at least one component of a first tyre being processed; characterised in that , during the expansion of the forming drum , the inserts of each sector are moved with respect to the respective central bodies by rotation around a rotation axis (Y-Y) axially extending through a lying plane of the respective axial end edge of the central body , up to an operative position in which said inserts extend each on the continuation of the inserts belonging to the circumferentially adjacent sectors , in order to form annular elements extending along the axially opposite edges of the forming drum . arranging an expandable toroidal forming drum , comprising circumferentially consecutive sectors that are radially movable, each comprising a central body and a pair of interchangeable inserts , each removably engaged at a respective axial end edge of the central body ; expanding the forming drum from a contracted condition in which said sectors are moved close to a geometric rotation axis (X-X) of the forming drum , to an expanded condition in which the sectors are radially moved away from said geometric axis (X-X) in order to define a radially outer deposition surface (S) extending between two axially opposite edges of the forming drum ; applying, on the deposition surface (S) of the forming drum , at least one component of a first tyre being processed; characterised in that , during the expansion of the forming drum , the inserts of each sector are moved with respect to the respective central bodies by rotation around a rotation axis (Y-Y) axially extending through a lying plane of the respective axial end edge of the central body , up to an operative position in which said inserts extend each on the continuation of the inserts belonging to the circumferentially adjacent sectors , in order to form annular elements extending along the axially opposite edges of the forming drum .
A method for performing self-calibration of a transmitter, comprising: transmitting respective wireless signals at a number of different frequencies and different power levels; measuring a signal power of each wireless signal at an output of a power amplifier with an internal detector to obtain a set of internal power detector values; receiving from an external device data indicative of the signal power measured by the external device for each respective wireless signal to obtain external power measurements; correlating the predetermined set of internal power detector values with the corresponding external power measurements; and interpolating a desired power detector value for at least one operating point based on the correlation results, the operating point comprising a frequency and a desired output power, self-calibrating the transmitter using the desired power detector value. transmitting respective wireless signals at a number of different frequencies and different power levels; measuring a signal power of each wireless signal at an output of a power amplifier with an internal detector to obtain a set of internal power detector values; receiving from an external device data indicative of the signal power measured by the external device for each respective wireless signal to obtain external power measurements; correlating the predetermined set of internal power detector values with the corresponding external power measurements; and interpolating a desired power detector value for at least one operating point based on the correlation results, the operating point comprising a frequency and a desired output power, self-calibrating the transmitter using the desired power detector value.
A method for producing a preform of an anti-resonant hollow-core fiber, which has a hollow core that extends along a longitudinal axis of the fiber and a sheath region that surrounds the hollow core and comprises at least one anti-resonance element, at least comprising the method steps of: (a) providing a cladding tube having a cladding tube inner surface and a cladding tube outer surface , at least one anti-resonance element blank being arranged on the cladding tube inner surface, (b) providing an overlay tube having an overlay tube inner surface , the overlay tube having an inner diameter which is larger than an outer diameter of the cladding tube , (c) arranging the cladding tube inside the overlay tube such that the overlay tube inner surface surrounds the cladding tube outer surface , (d) collapsing the overlay tube onto the cladding tube such that the overlay tube inner surface connects to the cladding tube outer surface , characterized in that during the collapse in method step (d), a first negative pressure P1 is applied between the overlay tube inner surface and the cladding tube outer surface and a second negative pressure P2 is applied inside the cladding tube . (a) providing a cladding tube having a cladding tube inner surface and a cladding tube outer surface , at least one anti-resonance element blank being arranged on the cladding tube inner surface, (b) providing an overlay tube having an overlay tube inner surface , the overlay tube having an inner diameter which is larger than an outer diameter of the cladding tube , (c) arranging the cladding tube inside the overlay tube such that the overlay tube inner surface surrounds the cladding tube outer surface , (d) collapsing the overlay tube onto the cladding tube such that the overlay tube inner surface connects to the cladding tube outer surface ,
A power cable comprising a conductor and an insulating layer covering the conductor, wherein the insulating layer is formed of an insulating composition containing heterophasic polypropylene resin, a flexural modulus of an insulating sample formed of the insulating composition at room temperature is in a range of 50 to 1,200 MPa, when measured according to the standard ASTM D790, and xylene insolubility thereof is 10% or less according to the following Equation 1: xylene insolubility = (mass of insulating sample after eluted with xylene solvent/mass of insulating sample before eluted with xylene solvent)×100, wherein the mass of insulating sample after eluted with xylene solvent represents mass of an insulating sample, measured when 0.3 grams of the insulating sample was immersed into a xylene solvent, heated at 150° C or higher for six hours, cooled to room temperature, taken out of the xylene solvent and dried in an oven at 150° C until the xylene solvent was dried, and a thickness of the insulating layer of the power cable is 5.5 to 84.0 times t min expressed in the following Equation 2: t min = 2.5 Uo / breakdown electric field for insulating sample , wherein Uo represents a reference voltage in a voltage test according to the standard IEC 60840, and the breakdown electric field for insulating sample represents an electric field (kV/mm) according to a voltage applied when a probability of dielectric breakdown occurring in a plurality of insulating samples was 63.2% when electrodes were brought into contact with both ends of each of the plurality of insulating samples to apply a voltage thereto. a flexural modulus of an insulating sample formed of the insulating composition at room temperature is in a range of 50 to 1,200 MPa, when measured according to the standard ASTM D790, and xylene insolubility thereof is 10% or less according to the following Equation 1: xylene insolubility = (mass of insulating sample after eluted with xylene solvent/mass of insulating sample before eluted with xylene solvent)×100, wherein the mass of insulating sample after eluted with xylene solvent represents mass of an insulating sample, measured when 0.3 grams of the insulating sample was immersed into a xylene solvent, heated at 150° C or higher for six hours, cooled to room temperature, taken out of the xylene solvent and dried in an oven at 150° C until the xylene solvent was dried, and a thickness of the insulating layer of the power cable is 5.5 to 84.0 times t min expressed in the following Equation 2: t min = 2.5 Uo / breakdown electric field for insulating sample , wherein Uo represents a reference voltage in a voltage test according to the standard IEC 60840, and the breakdown electric field for insulating sample represents an electric field (kV/mm) according to a voltage applied when a probability of dielectric breakdown occurring in a plurality of insulating samples was 63.2% when electrodes were brought into contact with both ends of each of the plurality of insulating samples to apply a voltage thereto.
A breaking device for breaking a closing element of a medical container, comprising: - an operating arrangement comprising an operating device and an operating element connected to the operating device , - a breaking element connected to the operating element and particularly adapted to break the closing element of the medical container , wherein the breaking device further comprises: - a support plate , - a housing arranged movable with respect to the support plate according to a predetermined axial direction (X-X), the operating element being arranged in the housing , and - a first actuator arrangement connected to the support plate and interacting with the housing to selectively move the housing along said predetermined axial direction (X-X) so as to selectively position the breaking element in a breaking position with the closing element of the medical container . - an operating arrangement comprising an operating device and an operating element connected to the operating device , - a breaking element connected to the operating element and particularly adapted to break the closing element of the medical container , - a support plate , - a housing arranged movable with respect to the support plate according to a predetermined axial direction (X-X), the operating element being arranged in the housing , and - a first actuator arrangement connected to the support plate and interacting with the housing to selectively move the housing along said predetermined axial direction (X-X) so as to selectively position the breaking element in a breaking position with the closing element of the medical container .
Vehicle seat with an air-supply device having an air-outflow opening which is provided in the upper region of the vehicle seat, and via which the head, shoulder and neck region of the seat occupant can be supplied with an air stream, wherein the air stream can be adjusted by means of a control unit, by control or regulation of a speed of a fan, and can be heated via a heating element, and wherein the control unit is fed at least one switch-on signal, for switching on the air-supply device, and a temperature signal, which gives information relating to the interior temperature, characterized in that the control unit (SE), in response to the switch-on signal (e1, e2, e3), switches on the heating element (HE) and the fan (G) and activates at least the fan (G) in dependence on the interior temperature, wherein the control unit (SE), in response to the switch-on signal (e1, e2, e3), causes the fan (G) to be operated at a preset minimum fan speed (dzmin) when the temperature signal (Ti) indicates that the interior temperature (Ti) is lower than a preset threshold temperature value (TS) .
A method of reducing message latency for high priority messages transmitted over a Link 16 wireless, multiple access network comprising a plurality of nodes , wherein the Link 16 network implements at least one simultaneous messaging protocol creating at least two subnets , wherein one of the subnets is designated as a low latency subnet and is configured as a contention access subnet; the method comprising using a processor of each node of the plurality of nodes to perform the steps of monitoring the at least two subnets simultaneously and transmitting messages on the at least two subnets; receiving messages simultaneously on the low latency subnet and at least one other of the subnets; designating messages before they are transmitted as being standard messages or high priority messages; and transmitting only messages designated as high priority messages over the low latency subnet . monitoring the at least two subnets simultaneously and transmitting messages on the at least two subnets; receiving messages simultaneously on the low latency subnet and at least one other of the subnets; designating messages before they are transmitted as being standard messages or high priority messages; and transmitting only messages designated as high priority messages over the low latency subnet .
A power system for a marine ship, comprising: a plurality of protection zones , each protection zone comprising: a plurality of direct current DC buses ; wherein DC buses which do not have same DC voltage are coupled to each other via at least one DC to DC converter ; at least one energy source coupled to at least one DC bus; and wherein at least two protection zones are coupled to each other; characterized in that the at least one energy source is coupled to the at least one DC bus via a power electronic converter ; and the at least two protection zones are coupled to each other via at least one bus-tie converter . a plurality of protection zones , each protection zone comprising: a plurality of direct current DC buses ; wherein DC buses which do not have same DC voltage are coupled to each other via at least one DC to DC converter ; at least one energy source coupled to at least one DC bus; and a plurality of direct current DC buses ; wherein DC buses which do not have same DC voltage are coupled to each other via at least one DC to DC converter ; at least one energy source coupled to at least one DC bus; and wherein at least two protection zones are coupled to each other; characterized in that the at least one energy source is coupled to the at least one DC bus via a power electronic converter ; and the at least two protection zones are coupled to each other via at least one bus-tie converter . characterized in that the at least one energy source is coupled to the at least one DC bus via a power electronic converter ; and the at least two protection zones are coupled to each other via at least one bus-tie converter .