mhurhangee/ep-ind-claims huggingface dataset:
A method for granting network resources for maintaining a communication session for a subscriber in a network, the method being performed by a Charging Trigger Function, CTF, node, the method comprising: obtaining, from a gateway in the network, a request for network resources for maintaining the communication session for the subscriber; requesting, from an Online Charging Function, OCF, node and in response thereto, credit units corresponding to the network resources; obtaining a grant of the credit units for immediate use and an advance credit indication of additional credit units for future use in case where the OCF node becomes unavailable, wherein the grant of the credit units is valid for one single request for credit units for the communication session, and wherein the advance credit indication pertains to grant of credit units for N≥1 additional such requests for the same communication session, and wherein the advance credit indication is used for granting further network resources for maintaining the communication session for the subscriber when the OCF node is unavailable, and wherein N indicates number of services used by the subscriber; storing the advance credit indication for the communication session; and providing, to the gateway, a grant for the network resources for maintaining the communication session in accordance with the obtained grant. obtaining, from a gateway in the network, a request for network resources for maintaining the communication session for the subscriber; requesting, from an Online Charging Function, OCF, node and in response thereto, credit units corresponding to the network resources; obtaining a grant of the credit units for immediate use and an advance credit indication of additional credit units for future use in case where the OCF node becomes unavailable, wherein the grant of the credit units is valid for one single request for credit units for the communication session, and wherein the advance credit indication pertains to grant of credit units for N≥1 additional such requests for the same communication session, and wherein the advance credit indication is used for granting further network resources for maintaining the communication session for the subscriber when the OCF node is unavailable, and wherein N indicates number of services used by the subscriber; storing the advance credit indication for the communication session; and providing, to the gateway, a grant for the network resources for maintaining the communication session in accordance with the obtained grant.
An electronic pen main unit that is to be fitted to a fitting part disposed in a casing of an electronic pen in which a pen tip side that is one end side in an axial center direction is made to be an opening, and is to be housed in a state of being movable in a hollow part of the casing by a movement mechanism that moves the fitting part in the axial center direction of the casing, the electronic pen main unit comprising: a center electrode being a core body and being composed of an electrically-conductive component, a pen tip part including the electrically-conductive core body allowed to protrude to external through the opening by being moved by the movement mechanism, wherein the opening is for inserting the core body into a main unit casing; the main unit casing including a main body tubular part to which the pen tip part is joined on the pen tip side in the axial center direction and that houses an electronic circuit including a signal generating circuit that generates a signal to be sent out to the external through the core body; a rear-end-part connector that is disposed at a rear end part of the main body tubular part on a side opposite to the pen tip part in the axial center direction, includes a terminal connected to the electronic circuit, and is joined to a connector for joining disposed at the fitting part of the casing; and a core body holding component being disposed in the main unit casing, wherein an end part of the core body is mounted to the core body holding component attachably and detachably. a center electrode being a core body and being composed of an electrically-conductive component, a pen tip part including the electrically-conductive core body allowed to protrude to external through the opening by being moved by the movement mechanism, wherein the opening is for inserting the core body into a main unit casing; the main unit casing including a main body tubular part to which the pen tip part is joined on the pen tip side in the axial center direction and that houses an electronic circuit including a signal generating circuit that generates a signal to be sent out to the external through the core body; a rear-end-part connector that is disposed at a rear end part of the main body tubular part on a side opposite to the pen tip part in the axial center direction, includes a terminal connected to the electronic circuit, and is joined to a connector for joining disposed at the fitting part of the casing; and a core body holding component being disposed in the main unit casing, wherein an end part of the core body is mounted to the core body holding component attachably and detachably.
A bending control mechanism for an endoscope, provided with a control body and a bendable section which includes an insertion section, said bending control mechanism comprising: a pulley which is rotatably provided in said control body; and a wire (W1, W2) which is connected between said pulley and said bendable section, wherein an amount of said wire (W1, W2) is wound onto said pulley in accordance with a change in rotation of said pulley, characterized in that an outer peripheral profile of said pulley, onto which said wire (W1, W2) is wound, includes a non-circular section including a small-radius section having a small radius from a rotational center axis of said pulley, and a large-radius section having a radius from said rotational center axis that is larger than said small radius, wherein said wire (W1, W2) is wound onto said large-radius section at an initial winding stage at which said bendable section is at a non-bending position, wherein said wire (W1, W2) is wound onto said small-radius section at a stage where said bendable section is bent by a maximum amount, and wherein each of said small-radius section and said large-radius section of said pulley comprises a constant radius section having a constant radius from said rotational center axis. a pulley which is rotatably provided in said control body; and a wire (W1, W2) which is connected between said pulley and said bendable section, wherein an amount of said wire (W1, W2) is wound onto said pulley in accordance with a change in rotation of said pulley, characterized in that an outer peripheral profile of said pulley, onto which said wire (W1, W2) is wound, includes a non-circular section including a small-radius section having a small radius from a rotational center axis of said pulley, and a large-radius section having a radius from said rotational center axis that is larger than said small radius, wherein said wire (W1, W2) is wound onto said large-radius section at an initial winding stage at which said bendable section is at a non-bending position, wherein said wire (W1, W2) is wound onto said small-radius section at a stage where said bendable section is bent by a maximum amount, and wherein each of said small-radius section and said large-radius section of said pulley comprises a constant radius section having a constant radius from said rotational center axis.
A combination bread toaster and steamer device, comprising: a) a housing; b) a pair of vertically oriented bread slots extending into the housing from a top of the housing; c) a steamer compartment positioned separate from the bread slots at an end of the housing and at an end of said bread slots, wherein said steamer compartment includes a heater pan configured to receive water; d) a bread heating element disposed adjacent the bread slots and a steamer heating element disposed adjacent the steamer compartment; and e) a single input and a controller operatively coupled to the bread heating element and the steamer heating element to initially activate the steamer heating element, and automatically and subsequently activate the bread heating element; and characterized in that the device further comprises a lift mechanism for elevating and lowering bread in the bread slots and including an arm coupled to the lift mechanism inside the housing and extending through an opening in the housing, the arm having an end configured to be operated by a user to manually lower the lift mechanism; and wherein the lift mechanism is operatively coupled to the controller such that engaging the single input and lowering the arm and the lift mechanism activates the steamer heating element, and automatically and subsequently activates the bread heating element. a) a housing; b) a pair of vertically oriented bread slots extending into the housing from a top of the housing; c) a steamer compartment positioned separate from the bread slots at an end of the housing and at an end of said bread slots, wherein said steamer compartment includes a heater pan configured to receive water; d) a bread heating element disposed adjacent the bread slots and a steamer heating element disposed adjacent the steamer compartment; and e) a single input and a controller operatively coupled to the bread heating element and the steamer heating element to initially activate the steamer heating element, and automatically and subsequently activate the bread heating element; and
A radiator comprising a connection assembly for the connection to the feed flow and the return flow of a heating system, wherein the radiator respectively comprises one connecting bore for the feed flow and the return flow, wherein the connection assembly at least comprises one connection element for the connection to the radiator, a connection unit and a hose line connecting the two, wherein the at least one connection element is connected to respectively two connection units, wherein each connection unit comprises a connecting bore for the connection to the feed flow and the return flow of the heating system, characterized in that the hose lines are flexible plastic hose elements, wherein the radiator comprises a fastening rail, by means of which the connection units can be attached to the radiator, wherein the connection units can be displaced with respect to the radiator, such that the radiator and the feed flow and return flow connections of the heating system can be displaced and positioned with respect to each other, wherein after the connection units have been properly mounted, they are fastened on the radiator by means of the fastening rail.
A method for communicating between multiple parties, the method comprising: generating, at a first device, for transmission to a second device, a request message configured to query codec capabilities of the second device; and receiving, at the first device, a second message in response to the request message, the second message including a list concurrent codec capabilities supported by the second device, wherein the list of concurrent codec capabilities supported by the second device comprises a term, separating each listed codec, which indicates whether or not one or more concurrent instances of a first listed codec for coding a media stream for transmission to the second device are replaceable by one or more concurrent instances of the following listed codec in the list, for coding the media stream for transmission to the second device; and wherein one or more instances of the first listed codec are indicated to be replaceable by one or more instances of the following listed codec when the following listed codec is computationally less complex than the first listed codec. generating, at a first device, for transmission to a second device, a request message configured to query codec capabilities of the second device; and receiving, at the first device, a second message in response to the request message, the second message including a list concurrent codec capabilities supported by the second device, wherein the list of concurrent codec capabilities supported by the second device comprises a term, separating each listed codec, which indicates whether or not one or more concurrent instances of a first listed codec for coding a media stream for transmission to the second device are replaceable by one or more concurrent instances of the following listed codec in the list, for coding the media stream for transmission to the second device; and wherein one or more instances of the first listed codec are indicated to be replaceable by one or more instances of the following listed codec when the following listed codec is computationally less complex than the first listed codec.
A gas turbine engine (100, 300) for an aircraft (200, 400), comprising: a pylon attachment (112; 312) for attaching the engine to a wing of the aircraft (200, 400); a shaft (108, 308) defining an engine centreline (110, 310), wherein the engine centreline (110, 310) lies in an engine central plane (120, 320) intersecting the pylon attachment (112, 312); an intake (104, 304) having a non-axisymmetric geometry, the intake (104, 304) having a medial plane defining, when the engine is attached to the wing of the aircraft, left and right halves of the intake (104, 304); a fan case, wherein the intake (104, 304) is mounted to the fan case; and a nacelle (102, 302) enclosing the fan case, wherein the intake (104, 304) and nacelle (102, 302) meet at an interface (106, 306); characterised in that the engine (100, 300) comprises means for adjusting an angular offset between the medial plane of the intake (104, 304) and the engine central plane (120, 320) by rotating the intake (104, 304) with respect to the fan case and the nacelle (102, 302). a pylon attachment (112; 312) for attaching the engine to a wing of the aircraft (200, 400); a shaft (108, 308) defining an engine centreline (110, 310), wherein the engine centreline (110, 310) lies in an engine central plane (120, 320) intersecting the pylon attachment (112, 312); an intake (104, 304) having a non-axisymmetric geometry, the intake (104, 304) having a medial plane defining, when the engine is attached to the wing of the aircraft, left and right halves of the intake (104, 304); a fan case, wherein the intake (104, 304) is mounted to the fan case; and a nacelle (102, 302) enclosing the fan case, wherein the intake (104, 304) and nacelle (102, 302) meet at an interface (106, 306);
A method of controlling a supply of coolant gas to a dry slag granulation system, the system comprising: a rotary atomising granulator; a slag receptacle, for supporting a slag bed which is formed thereon when slag particles are expelled from the granulator, the slag receptacle comprising a plurality of cooling inlets, each cooling inlet being positioned for cooling a respective zone of the slag bed; and at least one height detector and at least one temperature detector, for determining the height and temperature of the slag bed in the zones, the method comprising: determining a height of the slag bed in the zones; determining a temperature of the slag bed in the zones; determining a heat energy density of the slag bed in the zones based on the determined height and temperature; and supplying a coolant gas to the cooling inlets to cool the slag bed in the respective zones, the supply of the coolant gas to the cooling inlets being selectively controlled to provide a greater amount of coolant gas to zones of the slag bed having a higher heat energy density and a lesser amount of coolant gas to zones of the slag bed having a lower heat energy density, so as to optimise the usage of the coolant gas. a rotary atomising granulator; a slag receptacle, for supporting a slag bed which is formed thereon when slag particles are expelled from the granulator, the slag receptacle comprising a plurality of cooling inlets, each cooling inlet being positioned for cooling a respective zone of the slag bed; and at least one height detector and at least one temperature detector, for determining the height and temperature of the slag bed in the zones, the method comprising: determining a height of the slag bed in the zones; determining a temperature of the slag bed in the zones; determining a heat energy density of the slag bed in the zones based on the determined height and temperature; and supplying a coolant gas to the cooling inlets to cool the slag bed in the respective zones, the supply of the coolant gas to the cooling inlets being selectively controlled to provide a greater amount of coolant gas to zones of the slag bed having a higher heat energy density and a lesser amount of coolant gas to zones of the slag bed having a lower heat energy density, so as to optimise the usage of the coolant gas. determining a height of the slag bed in the zones; determining a temperature of the slag bed in the zones; determining a heat energy density of the slag bed in the zones based on the determined height and temperature; and supplying a coolant gas to the cooling inlets to cool the slag bed in the respective zones, the supply of the coolant gas to the cooling inlets being selectively controlled to provide a greater amount of coolant gas to zones of the slag bed having a higher heat energy density and a lesser amount of coolant gas to zones of the slag bed having a lower heat energy density, so as to optimise the usage of the coolant gas.
Pull-out guide having a guide rail which can be fixed to a body, a central rail and a running rail which can be coupled to a pull-out element and can be moved between a pull-out position and a retracted position, wherein rolling bodies retained in a first rolling-body cage are provided between the guide rail and the central rail, and rolling bodies retained in a second rolling-body cage are provided between the central rail and the running rail, and the first rolling-body cage is synchronized with the second rolling-body cage via a flexible deflecting element which is guided on the central rail, wherein a third rolling-body cage with rolling bodies is provided between the running rail and the central rail, characterized in that the third rolling-body cage is arranged movably relative to the second rolling-body cage parallel to the pull-out direction.
A hydrocracking catalyst comprising a cracking component and a hydrogenation component, wherein the cracking component comprises from 0 to 20 wt.% of a molecular sieve which is selected from the group consisting of Y-type molecular sieves, β molecular sieves, ZSM-5 molecular sieves, SAPO molecular sieves and MCM-41 mesoporous molecular sieves, or combinations thereof and from 20 to 60 wt.% of an amorphous silica-alumina, the hydrogenation component comprises at least one hydrogenation metal selected from W, Mo, Ni and Co, in a total amount of from 34 wt.% to 75 wt.% calculated by the mass of oxides, each amount is based on the total weight of the catalyst, the hydrocracking catalyst has a specific surface area of from 150 m 2 /g to 350 m 2 /g and a pore volume of from 0.20 cm 3 /g to 0.50 cm 3 /g, the product of the percent amount M of the total mass of the hydrogenation metal and the specific surface area S M×S = 120 - 160 m 2 /g, and wherein the amorphous silica-alumina has a specific surface area of from 400 to 650 m 2 /g and a pore volume of from 1.0 to 2.0 cm3/g, wherein the specific surface area and pore volume are determined by the low-temperature liquid nitrogen physical adsorption method. wherein the cracking component comprises from 0 to 20 wt.% of a molecular sieve which is selected from the group consisting of Y-type molecular sieves, β molecular sieves, ZSM-5 molecular sieves, SAPO molecular sieves and MCM-41 mesoporous molecular sieves, or combinations thereof and from 20 to 60 wt.% of an amorphous silica-alumina, the hydrogenation component comprises at least one hydrogenation metal selected from W, Mo, Ni and Co, in a total amount of from 34 wt.% to 75 wt.% calculated by the mass of oxides, each amount is based on the total weight of the catalyst, the hydrocracking catalyst has a specific surface area of from 150 m 2 /g to 350 m 2 /g and a pore volume of from 0.20 cm 3 /g to 0.50 cm 3 /g, the product of the percent amount M of the total mass of the hydrogenation metal and the specific surface area S M×S = 120 - 160 m 2 /g, and wherein the amorphous silica-alumina has a specific surface area of from 400 to 650 m 2 /g and a pore volume of from 1.0 to 2.0 cm3/g, wherein the specific surface area and pore volume are determined by the low-temperature liquid nitrogen physical adsorption method.
A cutting table with differentiated suction for stabilising the material to be cut, comprising a surface having a planar extension divided into a plurality of sectors and generally surmounted by a permeable cover on which said material is laid, characterised in that the table comprises a pump for high pressure suction and one pump for low pressure suction and in that said cover rests on an underlying rigid structure provided with indentations corresponding to said sectors along which two apertures are made for the alternate suction of air at high and low pressure by means of the respective pumps (34-34'), each of said sectors being divided into two zones respectively used for high and low pressure suction by means of the intervention of specific valve groups.
A wireless medical patch comprising: a plurality of sensors (114, 116, 154), each sensor configured to collect different health related data from a subject to which the patch is attached; and a communication interface configured to wirelessly and directly communicate with a mobile device, wherein the mobile device is capable of running a plurality of applications, wherein each application of said plurality is configured to utilize data from different subsets of sensors from the plurality of sensors, to provide different monitoring activities for the subject, characterized in that the communication interface is configured to transmit to the mobile device a subset of the collected health related data from a selected combination of the sensors. a plurality of sensors (114, 116, 154), each sensor configured to collect different health related data from a subject to which the patch is attached; and a communication interface configured to wirelessly and directly communicate with a mobile device, wherein the mobile device is capable of running a plurality of applications, wherein each application of said plurality is configured to utilize data from different subsets of sensors from the plurality of sensors, to provide different monitoring activities for the subject, characterized in that the communication interface is configured to transmit to the mobile device a subset of the collected health related data from a selected combination of the sensors.
Tuner designed for reception of analog and digital television signals and comprising an RF input for receiving a high frequency signal, a downconverter (4, 5) including a mixer coupled to the RF input for downconverting said high frequency signal, an IF filter coupled with an input to an output of the mixer, a SAW filter coupled with an input to an output of the IF filter, and a gain-controlled IF amplifier coupled with an input to an output of the SAW filter (9, 10), characterized in that the IF filter includes a controllable damping stage to provide a damping in case of reception of an analog television signal for improving a signal/noise ratio of the analog television signal.