mhurhangee/patent-ind-claim-en huggingface dataset:
A silicon-containing resin composition comprising (A) a silicon-containing resin, (B) a curing agent and (S) a solvent, the (A) silicon-containing resin being one or more selected from the group consisting of a siloxane resin and a polysilane, and the (S) solvent containing a cycloalkyl acetate represented by the following formula (S1): (in the formula (S1), R s1 represents an alkyl group having 1 to 3 carbon atoms; p is an integer of 1 to 6; and q is an integer of 0 to (p + 1)) wherein a content of the cycloalkyl acetate represented by the above formula (S1) in the (S) solvent is 50 % by mass or more, and wherein the (B) curing agent comprises a compound that generates a base component by the action of heat, the compound that generates a base component by the action of heat is a compound represented by the following formula (B2): wherein, in the formula (B2), R b1 , R b2 , and R b3 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, a mercapto group, a sulfide group, a silyl group, a silanol group, a nitro group, a nitroso group, a sulfonato group, a phosphino group, a phosphinyl group, a phosphonato group, or an organic group; R b4 and R b5 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, a mercapto group, a sulfide group, a silyl group, a silanol group, a nitro group, a nitroso group, a sulfino group, a sulfo group, a sulfonato group, a phosphino group, a phosphinyl group, a phosphono group, a phosphonato group, or an organic group; R b6 , R b7 , R b8 , R b9 , and R b10 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, a mercapto group, a sulfide group, a silyl group, a silanol group, a nitro group, a nitroso group, a sulfino group, a sulfo group, a sulfonato group, a phosphino group, a phosphinyl group, a phosphono group, a phosphonato group, an amino group, an ammonio group, or an organic group; and two or more of R b6 , R b7 , R b8 , R b9 , and R b10 may join together to form a cyclic structure, or may include a bond of a hetero atom.
A radar transceiver comprising: a transmitter including a transmit path , the transmit path including a transmit phase shifter ; a transmit-antenna associated with the transmitter; a frequency synthesizer coupled to the transmitter ; a receiver coupled to the frequency synthesizer and a voltage sensor , the receiver comprising an RF mixer , and the receiver including an LO path coupled to an LO port of the mixer , the LO path including an LO phase shifter ; a receive-antenna associated with the receiver; and a digital controller coupled to the voltage sensor , the receiver , and the transmitter ; wherein the digital controller is configured to, based on a DC voltage measurement of an IF signal from the RF mixer made by the voltage sensor , adjust a relative phase between the local oscillator, LO, port and a radio frequency, RF, port of the RF mixer so as to perform leakage cancellation in the radar transceiver; wherein the digital controller includes a control circuit configured to, subsequent to the adjustment of the relative phase, maintain the relative phase at a constant relative phase between the LO port and the RF port of the RF mixer , wherein the control circuit is configured to maintain the constant relative phase when a phase setting of the transmit phase shifter is modified by the digital controller , by adjusting an LO phase shifter phase setting of the LO phase shifter accordingly. a transmitter including a transmit path , the transmit path including a transmit phase shifter ; a transmit-antenna associated with the transmitter; a frequency synthesizer coupled to the transmitter ; a receiver coupled to the frequency synthesizer and a voltage sensor , the receiver comprising an RF mixer , and the receiver including an LO path coupled to an LO port of the mixer , the LO path including an LO phase shifter ; a receive-antenna associated with the receiver; and a digital controller coupled to the voltage sensor , the receiver , and the transmitter ; wherein the digital controller is configured to, based on a DC voltage measurement of an IF signal from the RF mixer made by the voltage sensor , adjust a relative phase between the local oscillator, LO, port and a radio frequency, RF, port of the RF mixer so as to perform leakage cancellation in the radar transceiver; wherein the digital controller includes a control circuit configured to, subsequent to the adjustment of the relative phase, maintain the relative phase at a constant relative phase between the LO port and the RF port of the RF mixer , wherein the control circuit is configured to maintain the constant relative phase when a phase setting of the transmit phase shifter is modified by the digital controller , by adjusting an LO phase shifter phase setting of the LO phase shifter accordingly.
A vehicle comprising a vehicle cabin with a flat floor and several seats arranged side by side in the vehicle width direction of the vehicle cabin, and an airbag apparatus comprising: a cushion provided on or embedded in a floor of a vehicle cabin and reaching a height at least equal to that of a pelvis region of an occupant seated in a seat during inflation and deployment, characterized in that the cushion is provided on or embedded in the floor obliquely forward of a seat cushion wherein the airbag apparatus inflates and deploys on a vehicle outer side and obliquely forward of one of the seats and inflates and deploys during a collision in which a force that causes the occupant to move in an obliquely forward direction is exerted on the vehicle. a vehicle cabin with a flat floor and several seats arranged side by side in the vehicle width direction of the vehicle cabin, and an airbag apparatus comprising: a cushion provided on or embedded in a floor of a vehicle cabin and reaching a height at least equal to that of a pelvis region of an occupant seated in a seat during inflation and deployment, characterized in that the cushion is provided on or embedded in the floor obliquely forward of a seat cushion wherein the airbag apparatus inflates and deploys on a vehicle outer side and obliquely forward of one of the seats and inflates and deploys during a collision in which a force that causes the occupant to move in an obliquely forward direction is exerted on the vehicle. a cushion provided on or embedded in a floor of a vehicle cabin and reaching a height at least equal to that of a pelvis region of an occupant seated in a seat during inflation and deployment, characterized in that the cushion is provided on or embedded in the floor obliquely forward of a seat cushion wherein the airbag apparatus inflates and deploys on a vehicle outer side and obliquely forward of one of the seats and inflates and deploys during a collision in which a force that causes the occupant to move in an obliquely forward direction is exerted on the vehicle.
A method comprising: operating, by a computing system , a Light Detection and Ranging (LIDAR) device (100; 200) to emit light pulses at emission times in accordance with an emission time sequence and to detect return light pulses in accordance with a detection time sequence, wherein the detection time sequence includes, for each emitted light pulse, a corresponding detection period for detection of a corresponding return light pulse, and wherein the corresponding detection periods comprise (i) one or more standard detection periods that establish a nominal detection range for the LIDAR device and (ii) one or more extended detection periods having respective durations that are longer than respective durations of the one or more standard detection periods; making a determination, by the computing system, that the LIDAR device detected one or more return light pulses during one or more of the extended detection periods that correspond to one or more particular emitted light pulses; in response to making the determination, determining, by the computing system, that the one or more detected return light pulses have detection times relative to corresponding emission times of the one or more particular emitted light pulses that are indicative of one or more ranges; making a further determination, by the computing system, of whether or not the one or more ranges indicate that an object is positioned outside of the nominal detection range; and engaging, by the computing system, in object detection in accordance with the further determination. operating, by a computing system , a Light Detection and Ranging (LIDAR) device (100; 200) to emit light pulses at emission times in accordance with an emission time sequence and to detect return light pulses in accordance with a detection time sequence, wherein the detection time sequence includes, for each emitted light pulse, a corresponding detection period for detection of a corresponding return light pulse, and wherein the corresponding detection periods comprise (i) one or more standard detection periods that establish a nominal detection range for the LIDAR device and (ii) one or more extended detection periods having respective durations that are longer than respective durations of the one or more standard detection periods; making a determination, by the computing system, that the LIDAR device detected one or more return light pulses during one or more of the extended detection periods that correspond to one or more particular emitted light pulses; in response to making the determination, determining, by the computing system, that the one or more detected return light pulses have detection times relative to corresponding emission times of the one or more particular emitted light pulses that are indicative of one or more ranges; making a further determination, by the computing system, of whether or not the one or more ranges indicate that an object is positioned outside of the nominal detection range; and engaging, by the computing system, in object detection in accordance with the further determination.
A modular system comprising an aircraft with a modular airframe , the modular airframe comprising a load carrying framework and a plurality of exchangeable covering items that exhibits a first predetermined shaping, the covering items being detachably mounted to the load carrying framework , characterized in that the modular system comprises substitute exchangeable covering items that exhibit a second predetermined shaping different than the first predetermined shaping; the load carrying framework being surrounded and shielded by the exchangeable covering items ; the modular airframe being customizable by exchanging the covering items with the substitute exchangeable covering items that exhibits the second predetermined shaping.
A method for execution by a portable fitness monitoring device comprising: launching a portable fitness monitoring application on the portable fitness monitoring device; receiving position data from a satellite positioning system receiver of the portable fitness monitoring device, wherein the position data is a plurality of position points; determining that the position data indicates that the portable fitness monitoring device is moving; beginning execution of a workout routine in response to the determination that the portable fitness monitoring device is moving, wherein the determination that the portable fitness monitoring device is moving is based on a determination that the distance between two consecutive position points exceeds a predetermined threshold; determining that the position data indicates that the portable fitness monitoring device is not moving, wherein the determination that the portable fitness monitoring device is not moving is based on a determination that the distance between two consecutive position points is less than a predetermined threshold; and ending execution of a workout routine in response to the determination that the portable fitness monitoring device is not moving. launching a portable fitness monitoring application on the portable fitness monitoring device; receiving position data from a satellite positioning system receiver of the portable fitness monitoring device, wherein the position data is a plurality of position points; determining that the position data indicates that the portable fitness monitoring device is moving; beginning execution of a workout routine in response to the determination that the portable fitness monitoring device is moving, wherein the determination that the portable fitness monitoring device is moving is based on a determination that the distance between two consecutive position points exceeds a predetermined threshold; determining that the position data indicates that the portable fitness monitoring device is not moving, wherein the determination that the portable fitness monitoring device is not moving is based on a determination that the distance between two consecutive position points is less than a predetermined threshold; and ending execution of a workout routine in response to the determination that the portable fitness monitoring device is not moving.
System for treating mass-produced parts, comprising: a support structure with a support element , a basket carrier , which is mounted rotatably relative to the support element about a main axis (D), a rotary drive device for rotating the basket carrier about the main axis (D), at least one centrifuge basket for receiving the mass-produced parts, and a connecting arrangement for each centrifuge basket for reversibly detachably connecting the respective centrifuge basket to the basket carrier , wherein the at least one connecting arrangement comprises a plurality of connector units , wherein the connector units each comprise a base member with a bolt receptacle , and a connecting bolt which is insertable into the bolt receptacle , characterised in that the connector units further each comprise a pneumatically or hydraulically actuatable locking mechanism , wherein in a connected state the connecting bolts are inserted into the bolt receptacles and are fixed to the base members by means of the locking mechanisms , and in a released state the connecting bolts are released by the locking mechanisms and are axially displaceable relative to the base members . a support structure with a support element , a basket carrier , which is mounted rotatably relative to the support element about a main axis (D), a rotary drive device for rotating the basket carrier about the main axis (D), at least one centrifuge basket for receiving the mass-produced parts, and a connecting arrangement for each centrifuge basket for reversibly detachably connecting the respective centrifuge basket to the basket carrier , wherein the at least one connecting arrangement comprises a plurality of connector units , wherein the connector units each comprise a base member with a bolt receptacle , and a connecting bolt which is insertable into the bolt receptacle , characterised in that the connector units further each comprise a pneumatically or hydraulically actuatable locking mechanism , wherein in a connected state the connecting bolts are inserted into the bolt receptacles and are fixed to the base members by means of the locking mechanisms , and in a released state the connecting bolts are released by the locking mechanisms and are axially displaceable relative to the base members .
A thermostatic gas valve designed to set gas regulation in domestic cooking ovens and having single-output body (1.1) or double-output body (1.2) comprising: • A male (1.3.13) that allows the gas to pass through different burning holes on the male by switching it with a rotation of a shaft (1.3.3) ; • A hole (1.3.3.2) extending along the shaft (1.3.3) at the center thereof; • A lid (1.3.6) entirely closing the shaft (1.3.3) with the body; • A threaded part (1.3.7) interlocked with the male (1.3.13) because of its size greater than the diameter of the male (1.3.13), and having a specific number of threads (1.3.7.1) in the range of 0°-360°, • a threaded shaft (1.3.8) having the specific number of threads in the range of 0°-360°, the threaded part (13.7) engaging with the threaded shaft (1.3.8) allowing the valve to be set in a precise manner after its production, wherein the valve can be set via a screwdriver accessing the male through said hole and the threaded part (1.3.7) and the threaded shaft are separated from each other by pressing screwdriver. • A male (1.3.13) that allows the gas to pass through different burning holes on the male by switching it with a rotation of a shaft (1.3.3) ; • A hole (1.3.3.2) extending along the shaft (1.3.3) at the center thereof; • A lid (1.3.6) entirely closing the shaft (1.3.3) with the body; • A threaded part (1.3.7) interlocked with the male (1.3.13) because of its size greater than the diameter of the male (1.3.13), and having a specific number of threads (1.3.7.1) in the range of 0°-360°, • a threaded shaft (1.3.8) having the specific number of threads in the range of 0°-360°, the threaded part (13.7) engaging with the threaded shaft (1.3.8) allowing the valve to be set in a precise manner after its production,
An aerodynamic article comprising: an aerodynamic body; a microstructured surface on the aerodynamic body, comprising: a plurality of parallel, primary ridges defining major capillary channels; and a plurality of parallel, secondary ridges having a height less than that of the primary ridges and extending between and generally parallel to the primary ridges, each secondary ridge at least partially defining two or more minor capillary channels within a respective major capillary channel wherein the primary ridges have an average height H1, the secondary ridges have an average height H2, and the ratio H1/H2 is in the range from 2 to 10, characterised in that the microstructured surface is an oleophilic surface. an aerodynamic body; a microstructured surface on the aerodynamic body, comprising: a plurality of parallel, primary ridges defining major capillary channels; and a plurality of parallel, secondary ridges having a height less than that of the primary ridges and extending between and generally parallel to the primary ridges, each secondary ridge at least partially defining two or more minor capillary channels within a respective major capillary channel wherein the primary ridges have an average height H1, the secondary ridges have an average height H2, and the ratio H1/H2 is in the range from 2 to 10, characterised in that the microstructured surface is an oleophilic surface. a plurality of parallel, primary ridges defining major capillary channels; and a plurality of parallel, secondary ridges having a height less than that of the primary ridges and extending between and generally parallel to the primary ridges, each secondary ridge at least partially defining two or more minor capillary channels within a respective major capillary channel wherein the primary ridges have an average height H1, the secondary ridges have an average height H2, and the ratio H1/H2 is in the range from 2 to 10, characterised in that the microstructured surface is an oleophilic surface.
A method for sharing media data between terminals, the method comprising: receiving (S101), by a first terminal, a media data sharing parameter transmitted by a second terminal through a Near Field Communication, NFC, link, wherein the media data sharing parameter comprises: storage address information of media data to be shared, the media data to be shared being uploaded and stored, by a second terminal, to a cloud server, the storage address information comprising a Media Access Control, MAC, address or an Internet Protocol, IP, address of the media data to be shared in the cloud server; acquiring (SI03), by the first terminal, the media data to be shared according to the storage address information of the media data to be shared; receiving (S201), by the first terminal, a synchronization parameter of the media data to be shared transmitted by the second terminal through the NFC link, wherein the synchronization parameter comprises: progress information of the media data to be shared, the progress information comprising at least one of a currently browsed page and row of a document, or a playing time node of the media data to be shared; and after acquiring (S202) the media data to be shared, playing (S203), by the first terminal, the media data to be shared synchronously with the second terminal according to the synchronization parameter. receiving (S101), by a first terminal, a media data sharing parameter transmitted by a second terminal through a Near Field Communication, NFC, link, wherein the media data sharing parameter comprises: storage address information of media data to be shared, the media data to be shared being uploaded and stored, by a second terminal, to a cloud server, the storage address information comprising a Media Access Control, MAC, address or an Internet Protocol, IP, address of the media data to be shared in the cloud server; acquiring (SI03), by the first terminal, the media data to be shared according to the storage address information of the media data to be shared; receiving (S201), by the first terminal, a synchronization parameter of the media data to be shared transmitted by the second terminal through the NFC link, wherein the synchronization parameter comprises: progress information of the media data to be shared, the progress information comprising at least one of a currently browsed page and row of a document, or a playing time node of the media data to be shared; and after acquiring (S202) the media data to be shared, playing (S203), by the first terminal, the media data to be shared synchronously with the second terminal according to the synchronization parameter.
Method for obtaining biodegradable polyesteretheramide, based on aliphatic or aliphatic and aromatic dicarboxylic acids and aliphatic dihydroxy compounds, polyethertriamines and other monomers or additives wherein it comprises a first stage of esterification and/or transesterification and amidation reaction, a second stage of prepolycondensation , a third stage of polycondensation , a fourth optional stage of extraction , a fifth stage of drying , and a sixth stage of extrusion ,