mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications at a receiving node, comprising: receiving timing information corresponding to a traffic class identifier, wherein the timing information is associated with a time interval for communicating traffic data of a traffic class corresponding to the traffic class identifier; receiving the traffic data pertaining to the traffic class; determining that the traffic data was transmitted or is received outside and after a first occurrence of the time interval; buffering the traffic data in response to the traffic data being transmitted or received outside the time interval; and forwarding the traffic data in response to a next occurrence of the time interval; wherein receiving the timing information comprises receiving a time indicator included with the traffic data, wherein the time indicator identifies the next occurrence of the time interval; wherein determining that the traffic data was transmitted or is received outside the time interval is based on a value of the time indicator relative to a value of a synchronized clock that is synchronized to the time interval; and further comprising: determining the next occurrence of the time interval based on the value of the synchronized clock and the value of the time indicator. receiving timing information corresponding to a traffic class identifier, wherein the timing information is associated with a time interval for communicating traffic data of a traffic class corresponding to the traffic class identifier; receiving the traffic data pertaining to the traffic class; determining that the traffic data was transmitted or is received outside and after a first occurrence of the time interval; buffering the traffic data in response to the traffic data being transmitted or received outside the time interval; and forwarding the traffic data in response to a next occurrence of the time interval; wherein receiving the timing information comprises receiving a time indicator included with the traffic data, wherein the time indicator identifies the next occurrence of the time interval; wherein determining that the traffic data was transmitted or is received outside the time interval is based on a value of the time indicator relative to a value of a synchronized clock that is synchronized to the time interval; and further comprising: determining the next occurrence of the time interval based on the value of the synchronized clock and the value of the time indicator.
A compound of formula 1 wherein R 1 is a saturated C 8 -C 16 aliphatic chain having a =O on C 1 , said chain being free from -OH substituents on C 3 , wherein R 2 is a saturated C 8 -C 16 aliphatic chain having a =O on C 1 , said chain being free from -OH substituents on C 3 , wherein R 3 is a saturated C 8 -C 16 aliphatic chain having a =O on C 1 , said chain being free from -OH substituents on C 3 ; wherein R 4 is a hydrogen atom (H) or O-R 4 is a phosphate group (PO 4 2- ), and wherein R1, R2 or R3 have no other substituents besides =O in C1 position. wherein R 1 is a saturated C 8 -C 16 aliphatic chain having a =O on C 1 , said chain being free from -OH substituents on C 3 , wherein R 2 is a saturated C 8 -C 16 aliphatic chain having a =O on C 1 , said chain being free from -OH substituents on C 3 , wherein R 3 is a saturated C 8 -C 16 aliphatic chain having a =O on C 1 , said chain being free from -OH substituents on C 3 ; wherein R 4 is a hydrogen atom (H) or O-R 4 is a phosphate group (PO 4 2- ), and wherein R1, R2 or R3 have no other substituents besides =O in C1 position.
A secondary battery state detecting device detecting a state of charge of a secondary battery mounted on a vehicle, wherein a first operation mode being an initial operation mode (M1) when the secondary battery state detecting device is newly connected to the secondary battery , and a second operation mode being a normal operation mode (M2) after the first operation mode are included, the secondary battery state detecting device , comprising: an initial state detecting unit which is configured to make the operation mode transit to the first operation mode, and to detect an initial state of charge of the secondary battery with reference to a terminal voltage of the secondary battery in a case connected to the secondary battery ; and a normal state detecting unit which is configured to make the operation mode transit to the second operation mode, and to detect the state of charge of the secondary battery at a normal time based on the terminal voltage and a charge/discharge current of the secondary battery at a predetermined timing after the state of charge of the secondary battery is detected by the initial state detecting unit , wherein the normal state detecting unit is configured to make the operation mode transit to the second operation mode when an ignition switch of the vehicle is turned into on state, and the initial state detecting unit is configured to detect the state of charge of the secondary battery in plural times, and detects the state of charge of the secondary battery based on a maximum value of the plural detections or based on an average value of the plural detections. an initial state detecting unit which is configured to make the operation mode transit to the first operation mode, and to detect an initial state of charge of the secondary battery with reference to a terminal voltage of the secondary battery in a case connected to the secondary battery ; and a normal state detecting unit which is configured to make the operation mode transit to the second operation mode, and to detect the state of charge of the secondary battery at a normal time based on the terminal voltage and a charge/discharge current of the secondary battery at a predetermined timing after the state of charge of the secondary battery is detected by the initial state detecting unit , wherein the normal state detecting unit is configured to make the operation mode transit to the second operation mode when an ignition switch of the vehicle is turned into on state, and the initial state detecting unit is configured to detect the state of charge of the secondary battery in plural times, and detects the state of charge of the secondary battery based on a maximum value of the plural detections or based on an average value of the plural detections.
A method for determining a control channel resource, comprising: detecting (S110, S210), by a user equipment, UE, a downlink control channel that carries scheduling information of a downlink data channel and is sent by a base station, wherein the downlink control channel is formed by at least one control channel logical element, and the at least one control channel logical element corresponding to the UE is mapped to one antenna port, wherein the antenna port is a demodulation reference signal, DMRS, antenna port; acquiring (S120, S220), by the UE, antenna port information of a first antenna port corresponding to a first control channel logical element of a successfully detected downlink control channel, an offset, and sequence number information of the first control channel logical element, wherein the offset is user equipment specific; and determining (S130, S230), by the UE, a first control channel resource according to the sequence number information, the antenna port information and the offset, wherein the first control channel resource is used to feed back acknowledgment, ACK/non-acknowledgment, NACK, information with respect to a downlink data channel corresponding to the successfully detected downlink control channel. detecting (S110, S210), by a user equipment, UE, a downlink control channel that carries scheduling information of a downlink data channel and is sent by a base station, wherein the downlink control channel is formed by at least one control channel logical element, and the at least one control channel logical element corresponding to the UE is mapped to one antenna port, wherein the antenna port is a demodulation reference signal, DMRS, antenna port; acquiring (S120, S220), by the UE, antenna port information of a first antenna port corresponding to a first control channel logical element of a successfully detected downlink control channel, an offset, and sequence number information of the first control channel logical element, wherein the offset is user equipment specific; and determining (S130, S230), by the UE, a first control channel resource according to the sequence number information, the antenna port information and the offset, wherein the first control channel resource is used to feed back acknowledgment, ACK/non-acknowledgment, NACK, information with respect to a downlink data channel corresponding to the successfully detected downlink control channel.
Bolt having a threaded shank (16.1) having a terminal face (16.3), a nut screwed onto the threaded shank (16.1) from the terminal face (16.3) and a blocking system preventing the nut from being unscrewed with respect to the threaded shank (16.1) and having a first part that cooperates with the nut so as to immobilize it in translation and/or in rotation, the blocking system comprising a housing , positioned in the threaded shank (16.1), opening at the terminal face (16.3) of the threaded shank (16.1), a passage hole passing through the first part , a second part having a first portion (38.1) that is housed in the housing of the threaded shank (16.1) and a second portion (38.2) that is housed in the passage hole of the first part and having a transverse section configured to immobilize the first part in rotation with respect to the threaded shank (16.1), characterized by a blocking screw having a head (46.2) bearing against the first part and a threaded shank (46.1) passing through the passage hole and screwed into the second part so as to immobilize the first and second parts in translation with respect to one another, the first portion (38.1) of the second part being able to expand and configured to occupy a retracted state in which the first portion (38.1) can slide in the housing and an expanded state in which the second part is immobilized in the housing of the threaded shank (16.1). a housing , positioned in the threaded shank (16.1), opening at the terminal face (16.3) of the threaded shank (16.1), a passage hole passing through the first part , a second part having a first portion (38.1) that is housed in the housing of the threaded shank (16.1) and a second portion (38.2) that is housed in the passage hole of the first part and having a transverse section configured to immobilize the first part in rotation with respect to the threaded shank (16.1), characterized by a blocking screw having a head (46.2) bearing against the first part and a threaded shank (46.1) passing through the passage hole and screwed into the second part so as to immobilize the first and second parts in translation with respect to one another, the first portion (38.1) of the second part being able to expand and configured to occupy a retracted state in which the first portion (38.1) can slide in the housing and an expanded state in which the second part is immobilized in the housing of the threaded shank (16.1).
A coated confectionery, comprising: a confectionery core; and a shell surrounding said confectionery core, said shell including: a soft coating including one or more layers of a first coating material and one or more layers of a second coating material; and a hard coating including at least one layer of a third coating material, wherein said one or more layers of said second coating material forms 20-40% of a total weight of said shell. a confectionery core; and a shell surrounding said confectionery core, said shell including: a soft coating including one or more layers of a first coating material and one or more layers of a second coating material; and a hard coating including at least one layer of a third coating material, a soft coating including one or more layers of a first coating material and one or more layers of a second coating material; and a hard coating including at least one layer of a third coating material,
A layer element, wherein said layer element is a multilayer element, which comprises at least one layer comprising a polypropylene composition (CA), which comprises - 5 to 50 wt% of a heterophasic copolymer of propylene (A) which has a Melting temperature (Tm) of at least 145°C (DSC), when measured as described in the specification under the Determination methods, and a Vicat softening temperature (Vicat A) of at least 90°C (according to ASTM D 1525, method A, 50°C/h, 10N), and which comprises a polypropylene matrix component (a1) and an elastomeric propylene copolymer component (a2) which is dispersed in said polypropylene matrix (a1), and - 20 to 60 wt% of a heterophasic copolymer of propylene (B) which has a Melting temperature (Tm) of at least 145°C (DSC), when measured as described in the specification under the Determination methods, and a Vicat softening temperature (Vicat A) of at least 90°C (according to ASTM D 1525, method A, 50°C/h, 10N), and which comprises a polypropylene matrix component (b1) and an elastomeric propylene copolymer component (b2) which is dispersed in said polypropylene matrix (b1), - 10 to 40 wt% of an inorganic filler, - 0 to 30 wt% of an plastomer, and - 0.3 to 5 wt% of an additive(s) other than the inorganic filler, based on the total amount (100 wt%) of the polypropylene composition; wherein the XCS of heterophasic copolymer of propylene (B) is higher than the XCS of heterophasic copolymer of propylene (A); wherein the layer element has a total thickness of 140 μm to 700 μm. - 5 to 50 wt% of a heterophasic copolymer of propylene (A) which has a Melting temperature (Tm) of at least 145°C (DSC), when measured as described in the specification under the Determination methods, and a Vicat softening temperature (Vicat A) of at least 90°C (according to ASTM D 1525, method A, 50°C/h, 10N), and which comprises a polypropylene matrix component (a1) and an elastomeric propylene copolymer component (a2) which is dispersed in said polypropylene matrix (a1), and - 20 to 60 wt% of a heterophasic copolymer of propylene (B) which has a Melting temperature (Tm) of at least 145°C (DSC), when measured as described in the specification under the Determination methods, and a Vicat softening temperature (Vicat A) of at least 90°C (according to ASTM D 1525, method A, 50°C/h, 10N), and which comprises a polypropylene matrix component (b1) and an elastomeric propylene copolymer component (b2) which is dispersed in said polypropylene matrix (b1), a polypropylene matrix component (b1) and an elastomeric propylene copolymer component (b2) which is dispersed in said polypropylene matrix (b1), - 10 to 40 wt% of an inorganic filler, - 0 to 30 wt% of an plastomer, and - 0.3 to 5 wt% of an additive(s) other than the inorganic filler, wherein the XCS of heterophasic copolymer of propylene (B) is higher than the XCS of heterophasic copolymer of propylene (A); wherein the layer element has a total thickness of 140 μm to 700 μm.
A hearing device comprising - a vibration sensitive transducer being adapted to detect vibrations being generated by a human voice, and - a digital signal processor for processing signals from the vibration sensitive transducer in order to identify a predetermined human voice vibration signal being associated with the voice of the user of the hearing device , and control the hearing device in accordance therewith wherein the vibration sensitive transducer is secured to a shell of the hearing device so that the vibrations are detected via a skull of the user of the hearing device , characterised in that the shell of the hearing device is, during operation, adapted to be positioned between the vibration sensitive transducer and the skull of the user of the hearing device in that the shell of the hearing device is adapted to abut the skin of the skull on one side of the shell , while the vibration sensitive transducer is secured to the opposite side of the shell , and that the digital signal processor is configured to switch the hearing device off when the predetermined human voice vibration signal is not identified in a predetermined time period. - a vibration sensitive transducer being adapted to detect vibrations being generated by a human voice, and - a digital signal processor for processing signals from the vibration sensitive transducer in order to identify a predetermined human voice vibration signal being associated with the voice of the user of the hearing device , and control the hearing device in accordance therewith
A laser system for creating a corneal pocket and an entry channel adapted to allow insertion and positioning of an intracorneal lens in the corneal pocket , said laser system comprising a low-energy femtosecond laser configured to create the corneal pocket and said entry channel , said system being configured to; position the laser proximate to a cornea such that it can be used to create the corneal pocket ; determine a generally curvilinear movement path and an energy output in a range between approximately 0.2 microjoules and 1.5 microjoules for the laser in order to form the corneal pocket having a specific shape and a thickness conforming to predefined surfaces of an intracorneal lens to be inserted into the corneal pocket ; follow the generally curvilinear movement path using a positioning software; focus a laser beam from the laser to a focal point at a predetermined depth within the cornea between an anterior surface and a posterior surface of the cornea such that the laser beam cuts and separates corneal tissue at the predetermined depth; move the laser beam in the generally curvilinear movement path in order to create the corneal pocket having the specific pocket shape and a thickness about the size of a diameter of the laser beam focal point; form the entry channel extending between an entry incision and the corneal pocket , into the corneal pocket , with the laser beam; characterised in that the generally curvilinear movement path used to form the corneal pocket follows the natural curvature of the eye. position the laser proximate to a cornea such that it can be used to create the corneal pocket ; determine a generally curvilinear movement path and an energy output in a range between approximately 0.2 microjoules and 1.5 microjoules for the laser in order to form the corneal pocket having a specific shape and a thickness conforming to predefined surfaces of an intracorneal lens to be inserted into the corneal pocket ; follow the generally curvilinear movement path using a positioning software; focus a laser beam from the laser to a focal point at a predetermined depth within the cornea between an anterior surface and a posterior surface of the cornea such that the laser beam cuts and separates corneal tissue at the predetermined depth; move the laser beam in the generally curvilinear movement path in order to create the corneal pocket having the specific pocket shape and a thickness about the size of a diameter of the laser beam focal point; form the entry channel extending between an entry incision and the corneal pocket , into the corneal pocket , with the laser beam; characterised in that the generally curvilinear movement path used to form the corneal pocket follows the natural curvature of the eye.
A position indicator for deriving a position pointed to by the position indicator on a tablet through capacitive coupling between the position indicator and the tablet , the position indicator comprising: a power source ; a position indicating signal transmitter that in operation transmits at least a position indicating signal to the tablet ; and a first control signal receiver that in operation receives a first control signal of a defined frequency transmitted from the tablet ; characterized in that the position indicator further comprises a second control signal receiver that in operation receives a second control signal modulated with defined binary data and transmitted from the tablet ; and in that the position indicator is operable in a first operation mode to only receive the first control signal and in a second operation mode to transmit at least the position indicating signal and receive the second control signal repeatedly, wherein in response to reception of the first control signal in the first operation mode, a transition occurs from the first operation mode to the second operation mode. a power source ; a position indicating signal transmitter that in operation transmits at least a position indicating signal to the tablet ; and a first control signal receiver that in operation receives a first control signal of a defined frequency transmitted from the tablet ; characterized in that the position indicator further comprises a second control signal receiver that in operation receives a second control signal modulated with defined binary data and transmitted from the tablet ; and in that the position indicator is operable in a first operation mode to only receive the first control signal and in a second operation mode to transmit at least the position indicating signal and receive the second control signal repeatedly, wherein in response to reception of the first control signal in the first operation mode, a transition occurs from the first operation mode to the second operation mode.
A corrosion inhibitor composition comprising: an anodic corrosion inhibitor comprising a permanganate, a tungstate and/or a vanadate; and a trivalent cerium citrate containing less than 0.1 weight percent of a negative ion other than citrate, being a hydrate and having greater than or equal to 10 weight percent water of hydration. an anodic corrosion inhibitor comprising a permanganate, a tungstate and/or a vanadate; and a trivalent cerium citrate containing less than 0.1 weight percent of a negative ion other than citrate, being a hydrate and having greater than or equal to 10 weight percent water of hydration.
An aerosol-generating device comprising: a housing having a chamber sized to receive at least a portion of an aerosol-forming article ; a first helical inductor coil disposed at least partially around, or adjacent to, the chamber; a second helical inductor coil disposed at least partially around, or adjacent to, the chamber, wherein the first helical inductor coil is part of a first circuit having a first resonant frequency and the second helical inductor coil forms part of a resonant circuit having a second resonant frequency, and an elongate susceptor element inductively heatable by one or both of the first and second helical inductor coils to heat at least a portion of an aerosol-forming substrate which is part of the aerosol-forming article, when the aerosol-forming substrate is at least partially received in the chamber. a housing having a chamber sized to receive at least a portion of an aerosol-forming article ; a first helical inductor coil disposed at least partially around, or adjacent to, the chamber; a second helical inductor coil disposed at least partially around, or adjacent to, the chamber, wherein the first helical inductor coil is part of a first circuit having a first resonant frequency and the second helical inductor coil forms part of a resonant circuit having a second resonant frequency, and an elongate susceptor element inductively heatable by one or both of the first and second helical inductor coils to heat at least a portion of an aerosol-forming substrate which is part of the aerosol-forming article, when the aerosol-forming substrate is at least partially received in the chamber.