mhurhangee/ep-ind-claims huggingface dataset:
A session control system, controlling establishing a session to transmit contents data between communication terminals, in a communication system including a plurality of relay management devices managing relaying the contents data transmitted from the communication terminals, comprising: a selection unit configured to select one of the relay management devices to manage relaying the contents data, every time the session is to be established; and a transmitter unit configured to transmit selection information representing the relay management device selected by the selection unit, at least to the communication terminals being connected with the relay management devices different from the relay management device selected by the selection unit, among the communication terminals to be participating in the session to be established. a selection unit configured to select one of the relay management devices to manage relaying the contents data, every time the session is to be established; and a transmitter unit configured to transmit selection information representing the relay management device selected by the selection unit, at least to the communication terminals being connected with the relay management devices different from the relay management device selected by the selection unit, among the communication terminals to be participating in the session to be established.
A method for making a hollow capsule containing liquid payloads that is useful for incorporating into a tobacco product, the method comprising: forming a droplet comprising a liquid payload core surrounded by a shell composition comprising a viscous non-animal based film-forming material; introducing the droplet into a first aqueous solution comprising a first multivalent ion selected from the group consisting of iron and calcium, in a concentration of less than 1 weight %, and allowing the droplet to remain in the first aqueous solution for less than 30 minutes; and maintaining the droplet in a second aqueous solution comprising a second multivalent ion selected from the group consisting of iron and calcium, in a concentration of more than 5 weight %, and allowing the droplet to remain in the second aqueous solution for more than 6 hours to form the hollow capsule. forming a droplet comprising a liquid payload core surrounded by a shell composition comprising a viscous non-animal based film-forming material; introducing the droplet into a first aqueous solution comprising a first multivalent ion selected from the group consisting of iron and calcium, in a concentration of less than 1 weight %, and allowing the droplet to remain in the first aqueous solution for less than 30 minutes; and maintaining the droplet in a second aqueous solution comprising a second multivalent ion selected from the group consisting of iron and calcium, in a concentration of more than 5 weight %, and allowing the droplet to remain in the second aqueous solution for more than 6 hours to form the hollow capsule.
A heating adjustment method, comprising: calculating an average indoor temperature of a cell, wherein the average indoor temperature of the cell is an average value of a real-time indoor temperature of each dwelling unit in the cell; and judging whether the average indoor temperature is within a standard temperature range; characterized by adjusting at least one of a water pump flow and a water temperature supplied to the cell when the average indoor temperature is not within the standard temperature range, the average indoor temperature is determined by the following formula: t np = c t 1 − t 2 G / 3.6 abV + t w, wherein t np is the average indoor temperature, c is specific heat capacity of water, t 1 is a water supply temperature, t 2 is a return water temperature, ( t 1 - t 2) is the water temperature, G is the water pump flow in t/h, a is a temperature correction coefficient, b is a building correction coefficient, V is contour volume of a building, and t w is an outdoor temperature. calculating an average indoor temperature of a cell, wherein the average indoor temperature of the cell is an average value of a real-time indoor temperature of each dwelling unit in the cell; and judging whether the average indoor temperature is within a standard temperature range; characterized by adjusting at least one of a water pump flow and a water temperature supplied to the cell when the average indoor temperature is not within the standard temperature range, the average indoor temperature is determined by the following formula: t np = c t 1 − t 2 G / 3.6 abV + t w, wherein t np is the average indoor temperature, c is specific heat capacity of water, t 1 is a water supply temperature, t 2 is a return water temperature, ( t 1 - t 2) is the water temperature, G is the water pump flow in t/h, a is a temperature correction coefficient, b is a building correction coefficient, V is contour volume of a building, and t w is an outdoor temperature.
A stereoscopic imaging system, comprising: an image source subsystem operable to output light of first and second states of polarization; an analyzer subsystem operable to substantially block light of the first SOP from traveling along a first path, and to substantially block light of the second SOP from traveling along a second path; wherein the image source subsystem comprises a first optical element operable to cause a first polarization change on light passing therethrough, and the analyzer subsystem comprises a second optical element operable to cause a second polarization change on light passing therethrough; wherein the first and second polarization changes, if not compensated, would at least partially cause at least one of a leakage of light of the first SOP along the first path or a leakage of light of the second SOP along the second path; wherein the image source subsystem or the analyzer subsystem comprises a compensator configured to at least reduce both the first and second polarization changes; and characterised in that the first and second optical elements operable to cause the first and second polarization changes, respectively, each comprise a -C-plate type retardation, and the compensator comprises at least one +C-plate operable to substantially correct a combined -C-plate type retardation of the first and second polarization changes. an image source subsystem operable to output light of first and second states of polarization; an analyzer subsystem operable to substantially block light of the first SOP from traveling along a first path, and to substantially block light of the second SOP from traveling along a second path; wherein the image source subsystem comprises a first optical element operable to cause a first polarization change on light passing therethrough, and the analyzer subsystem comprises a second optical element operable to cause a second polarization change on light passing therethrough; wherein the first and second polarization changes, if not compensated, would at least partially cause at least one of a leakage of light of the first SOP along the first path or a leakage of light of the second SOP along the second path; wherein the image source subsystem or the analyzer subsystem comprises a compensator configured to at least reduce both the first and second polarization changes; and characterised in that the first and second optical elements operable to cause the first and second polarization changes, respectively, each comprise a -C-plate type retardation, and the compensator comprises at least one +C-plate operable to substantially correct a combined -C-plate type retardation of the first and second polarization changes.
A hearing aid for a wearer, comprising: hearing aid electronics (115, 320); and an antenna including multiple loop segments (110, 210, 212, 310, 312); characterized by one or more conductors (105, 205, 305) configured in parallel with one or more of the multiple loop segments (110, 210, 212, 310, 312), the one or more conductors (105, 205, 305) electrically shorting one or more of the multiple loop segments (110, 210, 212, 310, 312) to create a shorter path that some of the current flowing in the antenna follows and change current distribution in the antenna, wherein at least one of the one or more conductors (105, 205, 305) is configured to reduce unwanted coupling between the hearing aid electronics (115, 320) and the antenna by the change of the current distribution in the antenna. hearing aid electronics (115, 320); and an antenna including multiple loop segments (110, 210, 212, 310, 312);
A polylactic acid resin composition comprising: a first component comprising a polylactic acid; a second component comprising a reaction product of at least one of a polyol and a polyol dehydration condensate, an alkylene oxide mainly formed of ethylene oxide, and a fatty acid having 12 to 24 carbon atoms; and a third component comprising a fatty acid amide. a first component comprising a polylactic acid; a second component comprising a reaction product of at least one of a polyol and a polyol dehydration condensate, an alkylene oxide mainly formed of ethylene oxide, and a fatty acid having 12 to 24 carbon atoms; and a third component comprising a fatty acid amide.
A method, performed by an access and mobility management function, AMF, for checking UE capability match, comprising: determining to send a UE capability match request to a base station during a registration procedure initiated by the UE; sending a request for setting up a UE's access stratum, AS, security context to the base station, and sending the UE capability match request to the base station after it is determined that the base station completes setup of the AS security context; and receiving a UE capability match acknowledgement returned from the base station; wherein the UE capability match acknowledgement is generated by the base station according to UE capability information, and the UE capability information is acquired from the UE by the base station after the setup of the AS security context is completed. determining to send a UE capability match request to a base station during a registration procedure initiated by the UE; sending a request for setting up a UE's access stratum, AS, security context to the base station, and sending the UE capability match request to the base station after it is determined that the base station completes setup of the AS security context; and receiving a UE capability match acknowledgement returned from the base station; wherein the UE capability match acknowledgement is generated by the base station according to UE capability information, and the UE capability information is acquired from the UE by the base station after the setup of the AS security context is completed.
A transmission apparatus comprising: encoding circuitry (302A, 302B), configured to encode, with an error correction code, a transmission data sequence, thereby generating two encoded data sequences that are to be decoded by a reception apparatus; modulation circuitry (306A, 306B), configured to modulate the two encoded data sequences to generate two modulated symbol sequences; precoding circuitry (308A, 308B), configured to precode the two modulated symbol sequences for a Line-of-Sight, LOS, environment in order to increase a capacity of reception data by hopping a preceding matrix expressed by Math. 1 for each symbol to generate two precoded symbol sequences; and characterized in that transmission circuitry (310A, 310B), configured to transmit the two preceded symbol sequences at the same frequency in the same transmission symbol slot from different antennas, wherein in Math. 1, a = 1, i is an integer incrementing in steps of 1 from 0 to N-1, and θ 21 satisfies Math. 2, for ∀ x ( x = 0,1,2,···, N - 2) N = 2. encoding circuitry (302A, 302B), configured to encode, with an error correction code, a transmission data sequence, thereby generating two encoded data sequences that are to be decoded by a reception apparatus; modulation circuitry (306A, 306B), configured to modulate the two encoded data sequences to generate two modulated symbol sequences; precoding circuitry (308A, 308B), configured to precode the two modulated symbol sequences for a Line-of-Sight, LOS, environment in order to increase a capacity of reception data by hopping a preceding matrix expressed by Math. 1 for each symbol to generate two precoded symbol sequences; and characterized in that transmission circuitry (310A, 310B), configured to transmit the two preceded symbol sequences at the same frequency in the same transmission symbol slot from different antennas, wherein in Math. 1, a = 1, i is an integer incrementing in steps of 1 from 0 to N-1, and θ 21 satisfies Math. 2, for ∀ x ( x = 0,1,2,···, N - 2) N = 2.
Thermo-forming packaging machine with a machine frame aligned in a direction of transport for a film web comprising a first and a second side, and with a film advance device for gripping one side of the film web and for transporting said film web, characterized in that said film advance device is provided only on one side of said machine frame.
Cable comprising a protective sheath in which there is housed at least one conductor, said protective sheath having a defined thickness and an outer diameter within a value range defined by a predetermined standard, said cable further comprising at least one removable indicator strip which extends longitudinally over at least one arc portion of the outer circumferential surface of the protective sheath, said cable being characterised in that said at least one removable indicator strip: - is produced from a polymeric material co-extruded with the protective sheath, said polymeric material being selected such that said at least one removable indicator strip can be removed by applying an extraction force per unit width of said at least one removable indicator strip above a predetermined threshold between 0.1 and 10 N/mm, said threshold allowing said at least one removable indicator strip to sufficiently adhere to the protective sheath so as to avoid any undesired detachment of said at least one removable indicator strip, whilst being able to be removed from the protective sheath by peeling without altering it; - has a thickness between 5 and 15% of the thickness of the protective sheath such that the outer diameter of the protective sheath increased by the thickness of said at least one removable indicator strip is within said value range. - is produced from a polymeric material co-extruded with the protective sheath, said polymeric material being selected such that said at least one removable indicator strip can be removed by applying an extraction force per unit width of said at least one removable indicator strip above a predetermined threshold between 0.1 and 10 N/mm, said threshold allowing said at least one removable indicator strip to sufficiently adhere to the protective sheath so as to avoid any undesired detachment of said at least one removable indicator strip, whilst being able to be removed from the protective sheath by peeling without altering it; - has a thickness between 5 and 15% of the thickness of the protective sheath such that the outer diameter of the protective sheath increased by the thickness of said at least one removable indicator strip is within said value range.
A pontoon type tunnel shuttle platform, adapted for shuttling in a tunnel between two shield shafts, and the platform comprising: a control device; a first winch and a second winch which are electrically connected to the control device; a cable, one end of the cable being wound on the first winch, another of the cable being wound on the second winch; and a carrying platform capable of floating on water, and the cable being sealed and fixed to the carrying platform, the carrying platform being electrically connected with the control device via the cable; wherein the control device is configured to control the first winch and the second winch for retracting and unwinding of the cable, thereby controlling the carrying platform in a suspended state to reciprocate and shuttle in the tunnel synchronously with the cable; wherein the pontoon type tunnel shuttle platform further comprises a cable support guide device comprising a positioning portion and a suspension portion that are connected to form an L-shaped structure, wherein the cable is arranged to slidably pass through the suspension portion, and wherein the suspension portion is provided with a guide wheel for supporting and guiding the cable; characterized in that: the pontoon type tunnel shuttle platform further comprises a support wheel pivotally connected to the suspension portion, wherein the support wheel and the guide wheel are configured at two opposite sides of the suspension portion, and wherein the suspension portion is configured to hang in the shield shaft by virtue of contact between the support wheel and a well wall of the shield shaft. a control device; a first winch and a second winch which are electrically connected to the control device; a cable, one end of the cable being wound on the first winch, another of the cable being wound on the second winch; and a carrying platform capable of floating on water, and the cable being sealed and fixed to the carrying platform, the carrying platform being electrically connected with the control device via the cable; wherein the control device is configured to control the first winch and the second winch for retracting and unwinding of the cable, thereby controlling the carrying platform in a suspended state to reciprocate and shuttle in the tunnel synchronously with the cable; wherein the pontoon type tunnel shuttle platform further comprises a cable support guide device comprising a positioning portion and a suspension portion that are connected to form an L-shaped structure, wherein the cable is arranged to slidably pass through the suspension portion, and wherein the suspension portion is provided with a guide wheel for supporting and guiding the cable; characterized in that: the pontoon type tunnel shuttle platform further comprises a support wheel pivotally connected to the suspension portion, wherein the support wheel and the guide wheel are configured at two opposite sides of the suspension portion, and wherein the suspension portion is configured to hang in the shield shaft by virtue of contact between the support wheel and a well wall of the shield shaft.
A refrigerator comprising - one or more than one cooling or freezing compartment wherein the items to be cooled are placed; - one or more than one door; - a frame that surrounds the front side of the compartments and whereon the door is seated when closed; - a reed sensor that is fixed on the frame and that detects whether the door is closed or not; - a control card whereon the reed sensor is placed; - an actuator that is fixed on the door and that activates the reed sensor; - a cable and a connector that provide electrical connection of the reed sensor and the control card; - a connection box that enables the cable and the connector to be fixed on the rear side of the frame; - an opening that is arranged on the frame and that enables the reed sensor to be placed, - a protector wherein the reed sensor is placed, that encapsulates the reed sensor together with the control card, characterized in that - a cover is provided that closes the opening, - the protector has the dimensions to pass through the opening and is placed into the connection box at the rear side of the frame by being passed through the opening at the front side of the frame, - the protector is produced from silicone. - one or more than one cooling or freezing compartment wherein the items to be cooled are placed; - one or more than one door; - a frame that surrounds the front side of the compartments and whereon the door is seated when closed; - a reed sensor that is fixed on the frame and that detects whether the door is closed or not; - a control card whereon the reed sensor is placed; - an actuator that is fixed on the door and that activates the reed sensor; - a cable and a connector that provide electrical connection of the reed sensor and the control card; - a connection box that enables the cable and the connector to be fixed on the rear side of the frame; - an opening that is arranged on the frame and that enables the reed sensor to be placed, - a protector wherein the reed sensor is placed, that encapsulates the reed sensor together with the control card, characterized in that - a cover is provided that closes the opening, - the protector has the dimensions to pass through the opening and is placed into the connection box at the rear side of the frame by being passed through the opening at the front side of the frame, - the protector is produced from silicone.
A method of preparing heat stable soy milk concentrate comprising: removing a portion of the soluble carbohydrates from a soy milk using an ultrafiltration membrane to form an intermediate soy milk; and concentrating the intermediate soy milk to form the heat stable soy milk concentrate; wherein the heat stable soy milk concentrate has greater than 9.5 percent up to 10.5 percent protein; and wherein the heat stable soy milk concentrate is stable upon experiencing heat treatment sufficient to achieve a lethality or sterilization value F o of at least 5. removing a portion of the soluble carbohydrates from a soy milk using an ultrafiltration membrane to form an intermediate soy milk; and concentrating the intermediate soy milk to form the heat stable soy milk concentrate;
A plasma electrode plate (20, 101, 112) comprising a plate-like dielectric body (23, 103) having a main surface and a back surface, and an electrode (24, 80, 90) included in the dielectric body, the electrode (24, 80, 90) being adapted to generate plasma upon application of voltage, the plasma electrode plate (20, 101, 112) being characterized in that: the electrode (24, 80, 90) has a plurality of through holes (33, 81, 91) each penetrating the electrode (24, 80, 90) in a thickness direction, and a surface of the electrode (24, 80, 90) is a curved surface; and the dielectric body (23, 103) covers the electrode (24, 80, 90) so as to extend along the outer surface of the electrode (24, 80, 90) and has an unevenly shaped portion (51, 61) on each of the main surface and the back surface; wherein a region of the dielectric body (23, 103) having the unevenly shaped portion (51, 61) has a wavy cross section. the electrode (24, 80, 90) has a plurality of through holes (33, 81, 91) each penetrating the electrode (24, 80, 90) in a thickness direction, and a surface of the electrode (24, 80, 90) is a curved surface; and the dielectric body (23, 103) covers the electrode (24, 80, 90) so as to extend along the outer surface of the electrode (24, 80, 90) and has an unevenly shaped portion (51, 61) on each of the main surface and the back surface; wherein a region of the dielectric body (23, 103) having the unevenly shaped portion (51, 61) has a wavy cross section.