mhurhangee/patent-ind-claim-en huggingface dataset:
A state-of-charge, SOC, display system comprising: a battery (112; 212); a brake light array (220; 320; 420) including a plurality of lighting elements (218; 318a-318j); and an SOC module (240; 340B) configured to: receive a battery status signal , said battery status signal including an SOC of said battery (112; 212); receive a fuel status signal of a fuel tank , said fuel status signal corresponding to a fuel supply in said fuel tank ; and output a display signal to said brake light array (220; 320; 420) based on said battery status signal and said fuel status signal ; said brake light array (220; 320; 420) being configured to: receive said display signal from said SOC module (240; 340B); illuminate a first subset of said plurality of lighting elements (218; 318a-318j) for displaying said SOC of said battery (112; 212) by said brake light array (220; 320; 420), in response to said display signal ; and illuminate a second subset of said plurality of lighting elements (218; 318a-318j) for displaying said fuel supply by said brake light array (220; 320; 420), in response to said display signal . a battery (112; 212); a brake light array (220; 320; 420) including a plurality of lighting elements (218; 318a-318j); and an SOC module (240; 340B) configured to: receive a battery status signal , said battery status signal including an SOC of said battery (112; 212); receive a fuel status signal of a fuel tank , said fuel status signal corresponding to a fuel supply in said fuel tank ; and output a display signal to said brake light array (220; 320; 420) based on said battery status signal and said fuel status signal ; receive a battery status signal , said battery status signal including an SOC of said battery (112; 212); receive a fuel status signal of a fuel tank , said fuel status signal corresponding to a fuel supply in said fuel tank ; and output a display signal to said brake light array (220; 320; 420) based on said battery status signal and said fuel status signal ; said brake light array (220; 320; 420) being configured to: receive said display signal from said SOC module (240; 340B); illuminate a first subset of said plurality of lighting elements (218; 318a-318j) for displaying said SOC of said battery (112; 212) by said brake light array (220; 320; 420), in response to said display signal ; and illuminate a second subset of said plurality of lighting elements (218; 318a-318j) for displaying said fuel supply by said brake light array (220; 320; 420), in response to said display signal . receive said display signal from said SOC module (240; 340B); illuminate a first subset of said plurality of lighting elements (218; 318a-318j) for displaying said SOC of said battery (112; 212) by said brake light array (220; 320; 420), in response to said display signal ; and illuminate a second subset of said plurality of lighting elements (218; 318a-318j) for displaying said fuel supply by said brake light array (220; 320; 420), in response to said display signal .
A smoking article , comprising: a first part, and, a second part movable relative to the first part, wherein the first part comprises a tobacco rod and a first filter section and the second part comprises a sleeve and a second filter section , wherein at least the second part comprises at least one ventilation area , wherein the relative position of the first part to the second part is configured to selectively inhibit ventilation through at least part of the at least one ventilation area to provide a variable flow system configured to variably control gaseous flow into or through the smoking article; characterised in that the sleeve is partially surrounded by an outer sleeve which is provided with one or more ventilation apertures and which is movable around the second part of the smoking article comprising the at least one ventilation area . a first part, and, a second part movable relative to the first part, wherein the first part comprises a tobacco rod and a first filter section and the second part comprises a sleeve and a second filter section , wherein at least the second part comprises at least one ventilation area , wherein the relative position of the first part to the second part is configured to selectively inhibit ventilation through at least part of the at least one ventilation area to provide a variable flow system configured to variably control gaseous flow into or through the smoking article; characterised in that the sleeve is partially surrounded by an outer sleeve which is provided with one or more ventilation apertures and which is movable around the second part of the smoking article comprising the at least one ventilation area .
A security negotiation method carried out by a security function entity, comprising: receiving (S202), an authentication request sent by a first core network element of a network slice, wherein the authentication request is generated by the first core network element based on a request message of user equipment, UE; performing (S203), Authentication and Key Agreement with the UE based on the authentication request, and generating a security parameter for the network slice based on the Authentication and Key Agreement, wherein the security parameter comprises a first key for the network slice; wherein the security parameter further comprises first identification information, and the first identification information is used to identify first security authentication between the UE and the security function entity, wherein the first identification information comprises address information of the security function entity corresponding to the first security authentication; receiving (S206) a first key request sent by the first core network element; generating (S207) a first security key between the first core network element and the UE based on the first key request and the first key; sending (S208) the first security key to the first core network element; receiving (S2010, a second key request sent by a second core network element of the network slice; and generating (S2011), a second security key between the second core network element and the UE based on the second key request and the first key, sending (S2012) the second security key to the second core network element. receiving (S202), an authentication request sent by a first core network element of a network slice, wherein the authentication request is generated by the first core network element based on a request message of user equipment, UE; performing (S203), Authentication and Key Agreement with the UE based on the authentication request, and generating a security parameter for the network slice based on the Authentication and Key Agreement, wherein the security parameter comprises a first key for the network slice; wherein the security parameter further comprises first identification information, and the first identification information is used to identify first security authentication between the UE and the security function entity, wherein the first identification information comprises address information of the security function entity corresponding to the first security authentication; receiving (S206) a first key request sent by the first core network element; generating (S207) a first security key between the first core network element and the UE based on the first key request and the first key; sending (S208) the first security key to the first core network element; receiving (S2010, a second key request sent by a second core network element of the network slice; and generating (S2011), a second security key between the second core network element and the UE based on the second key request and the first key, sending (S2012) the second security key to the second core network element.
A method of assembling a cap comprising: forming a single-panel crown for a cap from a single sheet or single piece of stretchable fabric; removing a portion of the single-panel crown to form an open area; attaching a support layer to an interior portion of the single-panel crown ; and attaching a visor and a band to the single-panel crown with the attached support layer , wherein removing a portion of the single-panel crown to form an open area comprises: attaching a layer of material to a back of the single-panel crown , the layer of material having a predefined shape corresponding to a desired shape of the open area, the removed portion of the single-panel crown comprising a back portion of the single-panel crown ; and removing a portion of the layer of material along with the single-panel crown to form the open area with the desired shape so that a strip of the layer of material runs along an edge of a back of the single-panel crown around the open area. forming a single-panel crown for a cap from a single sheet or single piece of stretchable fabric; removing a portion of the single-panel crown to form an open area; attaching a support layer to an interior portion of the single-panel crown ; and attaching a visor and a band to the single-panel crown with the attached support layer , wherein removing a portion of the single-panel crown to form an open area comprises: attaching a layer of material to a back of the single-panel crown , the layer of material having a predefined shape corresponding to a desired shape of the open area, the removed portion of the single-panel crown comprising a back portion of the single-panel crown ; and removing a portion of the layer of material along with the single-panel crown to form the open area with the desired shape so that a strip of the layer of material runs along an edge of a back of the single-panel crown around the open area. attaching a layer of material to a back of the single-panel crown , the layer of material having a predefined shape corresponding to a desired shape of the open area, the removed portion of the single-panel crown comprising a back portion of the single-panel crown ; and removing a portion of the layer of material along with the single-panel crown to form the open area with the desired shape so that a strip of the layer of material runs along an edge of a back of the single-panel crown around the open area.
A hearing device to be worn at least partly behind an ear of a user, comprising a hearing device housing, wherein the housing has a first end and an opposite second end, wherein the first end is configured to be positioned at the top of the ear and the second end is configured to be positioned lower than the first end when the hearing device is worn by a user; and a radio-frequency antenna arranged at least partly inside the housing, the radio-frequency antenna configured to receive and/or transmit electromagnetic radio-frequency signals, wherein the radio-frequency antenna comprises: at least one first antenna element with a plate like first surface , wherein the first antenna element has a feed for electrically connecting the radio-frequency antenna , wherein the first antenna element has a ground connection , wherein at least part of the radio-frequency antenna is arranged as a loop antenna or inverted F-antenna, IFA antenna, wherein the radio-frequency antenna is arranged at the first end of the hearing device housing, characterized in that the loop- or IFA-antenna part forms an opening, and wherein a transducer is arranged in the opening. at least one first antenna element with a plate like first surface , wherein the first antenna element has a feed for electrically connecting the radio-frequency antenna , wherein the first antenna element has a ground connection , wherein at least part of the radio-frequency antenna is arranged as a loop antenna or inverted F-antenna, IFA antenna, wherein the radio-frequency antenna is arranged at the first end of the hearing device housing, characterized in that the loop- or IFA-antenna part forms an opening, and wherein a transducer is arranged in the opening.
A compound having the following structure: wherein X is a carbon atom or nitrogen atom, R 1 is selected from the group consisting of a substituted or unsubstituted five to eight membered heterocyclic ring, six membered aryl ring, five or six membered heteroaryl ring, C 3 to C 8 cycloalkyl group, C 1 to C 6 alkyl group, and R 2 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted five or six membered heteroaryl ring, a five or six membered aryl ring, C 3 to C 6 cycloalkyl group, eight to ten membered heterocyclic ring system, and R 3 is selected from the group consisting of a substituted or unsubstituted C 2 to C 8 alkylheteroaryl group, C 2 to C 8 alkyleneheteroaryl group, C 6 to C 10 aryl group, C 2 to C 5 heteroaryl group, C 7 to C 13 alkylaryl group, C 7 to C 13 alkylenearyl group, C 2 to C 8 alkylhetrocyclyl group, C 2 to C 8 alkylenehetrocyclyl group, C 4 to C 8 alkylcycloalkyl group, or C 4 to C 8 alkylenecycloalkyl group; and R a is a substituted or unsubstituted C 1 to C 6 alkyl group or C 5 to C 6 aryl group.
An apparatus, comprising: a forward osmosis module configured to receive a feed stream and a high concentration draw stream , wherein the forward osmosis module is further configured to produce a first stream comprising water from the feed stream and the high concentration draw stream ; a pump configured to pressurize the first stream ; a low rejection membrane module having a salt rejection of less than 90% configured to receive the pressurized first stream and to produce the high concentration draw stream and a low concentration stream ; and a reverse osmosis module configured to receive the low concentration stream and to produce a product stream and a reverse osmosis reject stream , wherein the reverse osmosis module has a higher salt rejection than the low rejection membrane module , wherein the reverse osmosis reject stream is combined with the pressurized first stream provided to the low rejection module to form a stream prior to entering the low rejection membrane module , wherein the stream is recycled to form a portion of the high concentration draw stream . a forward osmosis module configured to receive a feed stream and a high concentration draw stream , wherein the forward osmosis module is further configured to produce a first stream comprising water from the feed stream and the high concentration draw stream ; a pump configured to pressurize the first stream ; a low rejection membrane module having a salt rejection of less than 90% configured to receive the pressurized first stream and to produce the high concentration draw stream and a low concentration stream ; and a reverse osmosis module configured to receive the low concentration stream and to produce a product stream and a reverse osmosis reject stream , wherein the reverse osmosis module has a higher salt rejection than the low rejection membrane module , wherein the reverse osmosis reject stream is combined with the pressurized first stream provided to the low rejection module to form a stream prior to entering the low rejection membrane module , wherein the stream is recycled to form a portion of the high concentration draw stream .
An adjustable mouse comprising: a base (12; 138); and a thumb adjustment assembly (16; 130) coupled to the base, the thumb adjustment assembly being configured to move a thumb rest portion (18; 132) between a retracted position and an extended position, characterized in that the thumb adjustment assembly includes a first telescopic shaft secured to the thumb rest portion by a universal ball joint , the first telescopic shaft being supported by the base to move the thumb rest portion toward and away from the base. a base (12; 138); and a thumb adjustment assembly (16; 130) coupled to the base, the thumb adjustment assembly being configured to move a thumb rest portion (18; 132) between a retracted position and an extended position, characterized in that the thumb adjustment assembly includes a first telescopic shaft secured to the thumb rest portion by a universal ball joint , the first telescopic shaft being supported by the base to move the thumb rest portion toward and away from the base.
An electric blower comprising: a motor ; a first fan provided on one end side of the motor in an axial direction and configured to generate a first air current; a second fan provided opposite to the first fan in the axial direction and configured to generate a second air current; and a housing covering the motor , the first fan , and the second fan , wherein the housing includes a first exhaust port and a second exhaust port that are formed on both sides in the axial direction, the first air current and the second air current are exhausted from the first exhaust port and the second exhaust port in opposite directions to each other in the axial direction respectively, the first fan is a centrifugal fan or a mixed-flow fan, the second fan is a centrifugal fan or a mixed-flow fan, and a diameter (r11) of an inner end of the first fan in the axial direction is smaller than a diameter (r12) of an outer end of the first fan in the axial direction, characterized by : the housing including: a first fan cover covering the first fan ; and a second fan cover covering the second fan , and a width (w1) between the first fan and the first fan cover is smaller than a width (w2) between the second fan and the second fan cover . a motor ; a first fan provided on one end side of the motor in an axial direction and configured to generate a first air current; a second fan provided opposite to the first fan in the axial direction and configured to generate a second air current; and a housing covering the motor , the first fan , and the second fan , wherein the housing includes a first exhaust port and a second exhaust port that are formed on both sides in the axial direction, the first air current and the second air current are exhausted from the first exhaust port and the second exhaust port in opposite directions to each other in the axial direction respectively, the first fan is a centrifugal fan or a mixed-flow fan, the second fan is a centrifugal fan or a mixed-flow fan, and a diameter (r11) of an inner end of the first fan in the axial direction is smaller than a diameter (r12) of an outer end of the first fan in the axial direction, characterized by : the housing including: a first fan cover covering the first fan ; and a second fan cover covering the second fan , and a width (w1) between the first fan and the first fan cover is smaller than a width (w2) between the second fan and the second fan cover . a first fan cover covering the first fan ; and a second fan cover covering the second fan , and a width (w1) between the first fan and the first fan cover is smaller than a width (w2) between the second fan and the second fan cover .
A transmission device comprising: a modulator that selects Orbital Angular Momentum, OAM, propagation modes based on a pattern which indicates a selection order in which each of N OAM propagation modes is sequentially selected, wherein, at each of K mode intervals, one OAM propagation mode of the N OAM propagation modes is selected, N being an integer equal to or greater than 2, K being an integer equal to or greater than 1; and a transmitter that transmits, in one symbol interval which includes K mode intervals, a transmission symbol using the OAM propagation modes selected by the modulator in accordance with the selection order, and does not transmit, in the one symbol interval, the transmission symbol using OAM propagation modes other than the OAM propagation modes selected by the modulator in accordance with the selection order, wherein the transmitter transmits, in each of the K mode intervals included in the one symbol interval, a dummy signal using the OAM propagation modes other than the OAM propagation mode selected by the modulator in accordance with the selection order. a modulator that selects Orbital Angular Momentum, OAM, propagation modes based on a pattern which indicates a selection order in which each of N OAM propagation modes is sequentially selected, wherein, at each of K mode intervals, one OAM propagation mode of the N OAM propagation modes is selected, N being an integer equal to or greater than 2, K being an integer equal to or greater than 1; and a transmitter that transmits, in one symbol interval which includes K mode intervals, a transmission symbol using the OAM propagation modes selected by the modulator in accordance with the selection order, and does not transmit, in the one symbol interval, the transmission symbol using OAM propagation modes other than the OAM propagation modes selected by the modulator in accordance with the selection order, transmits, in one symbol interval which includes K mode intervals, a transmission symbol using the OAM propagation modes selected by the modulator in accordance with the selection order, and does not transmit, in the one symbol interval, the transmission symbol using OAM propagation modes other than the OAM propagation modes selected by the modulator in accordance with the selection order, wherein the transmitter transmits, in each of the K mode intervals included in the one symbol interval, a dummy signal using the OAM propagation modes other than the OAM propagation mode selected by the modulator in accordance with the selection order.
A method of making an aircraft blade , the method comprising the steps of: assembling two or more fibre-reinforced thermoplastic composite parts (12,14,16a-d,18,22) into a blade assembly; and welding the fibre-reinforced thermoplastic composite parts together utilising an additional thermoplastic located at least at locations where the parts will abut when assembled; wherein the step of welding comprises heating at least a portion of the blade assembly where the parts abut to a temperature which softens or melts the additional thermoplastic but is below the temperatures at which the thermoplastic of each of the composite parts melts, so as to weld the fibre-reinforced thermoplastic composite parts together by means of the softened or melted additional thermoplastic to form the aircraft blade. assembling two or more fibre-reinforced thermoplastic composite parts (12,14,16a-d,18,22) into a blade assembly; and welding the fibre-reinforced thermoplastic composite parts together utilising an additional thermoplastic located at least at locations where the parts will abut when assembled; wherein the step of welding comprises heating at least a portion of the blade assembly where the parts abut to a temperature which softens or melts the additional thermoplastic but is below the temperatures at which the thermoplastic of each of the composite parts melts, so as to weld the fibre-reinforced thermoplastic composite parts together by means of the softened or melted additional thermoplastic to form the aircraft blade.