mhurhangee/patent-ind-claim-en huggingface dataset:
A lip treatment comprising a taste-masked sunscreen composition wherein the taste-masked sunscreen composition comprises the sunscreens homosalate, octylsalate, oxybenzone, octinoxate and avobenzone, the spider ester sorbeth-2-hexaoleate, and the photostabilizer diethylhexyl 2,6-naphthalate, wherein the sunscreens, the spider ester, and the photostabilizer are in intimate association, and further comprising at least one compound that reduces the appearance of aging selected from the group consisting of coenzyme Q, hyaluronic acid, a hyaluronic acid salt, and spilanthes flower formulation.
A method for a playback device configured to receive a first audio signal from a first audio source and to receive a second audio signal from a second audio source , the method comprising: playing back the second audio signal from the second audio source; receiving an instruction to stop playing the second audio signal while the second audio signal is present; after receiving the instruction to stop playing the second audio signal, determining that the second audio signal is no longer present; and after determining that the second audio signal is no longer present for an interval of time, and while playing back the first audio signal or not playing back audio: receiving the second audio signal; and after receiving the second audio signal, playing back the second audio signal. playing back the second audio signal from the second audio source; receiving an instruction to stop playing the second audio signal while the second audio signal is present; after receiving the instruction to stop playing the second audio signal, determining that the second audio signal is no longer present; and after determining that the second audio signal is no longer present for an interval of time, and while playing back the first audio signal or not playing back audio: receiving the second audio signal; and after receiving the second audio signal, playing back the second audio signal. receiving the second audio signal; and after receiving the second audio signal, playing back the second audio signal.
A network node configured to provide wireless access to user devices, the network node comprising: means for determining in the cell and its neighboring cells uplink/downlink ratios of at least flexible subframes within a transmission frame, a flexible subframe being a subframe that is flexibly assignable for uplink or for downlink; means for determining, based on the uplink/downlink ratios, using a look-up-table comprising mappings between at least some uplink/downlink ratios and their optimal link direction assignments, optimal link direction assignments at least for the flexible subframes in the cell and its neighboring cells; and means for causing using the optimal link direction assignments in one or more transmissions. means for determining in the cell and its neighboring cells uplink/downlink ratios of at least flexible subframes within a transmission frame, a flexible subframe being a subframe that is flexibly assignable for uplink or for downlink; means for determining, based on the uplink/downlink ratios, using a look-up-table comprising mappings between at least some uplink/downlink ratios and their optimal link direction assignments, optimal link direction assignments at least for the flexible subframes in the cell and its neighboring cells; and means for causing using the optimal link direction assignments in one or more transmissions.
A MEMS type deformation sensor, the sensor being adapted to measure a relative displacement between two areas of a structure, the sensor comprising: - a first part and a second part movable relative to each other along an axis of measurement (X), - a pushing element fixedly mounted relative to the first part , - a first electrode (A) and a second electrode (B) adapted to be brought to different electric potentials, each electrode being fixedly mounted relative to the second part , - a junction part (I) forming an electrical connection between the first electrode (A) and the second electrode (B), the sensor being characterized in that the pushing element is configured to exert a load on the junction part (I) when the first part moves relative to the second part along the axis of measurement (X) beyond a predetermined distance, the electrical connection being broken under the effect of the load. - a first part and a second part movable relative to each other along an axis of measurement (X), - a pushing element fixedly mounted relative to the first part , - a first electrode (A) and a second electrode (B) adapted to be brought to different electric potentials, each electrode being fixedly mounted relative to the second part , - a junction part (I) forming an electrical connection between the first electrode (A) and the second electrode (B),
A combustor assembly lift system comprising: a track that extends in at least a longitudinal direction; a support arm moveably engaged with the track such that it can traverse along the track in at least the longitudinal direction; a lift arm connected to the support arm and moveably engaged with the track via the support arm such that it can traverse along the track in at least the longitudinal direction; and, a combustor assembly engagement frame connected to the lift arm , wherein the combustor assembly engagement frame is configured to temporarily secure to at least a portion of a combustor assembly wherein the lift arm is rotatably connected to the support arm , characterized in that the combustor assembly engagement frame comprises a cradle configuration adapted and configured to receive and support the combustor assembly , wherein the support arm rides along a rail on the track , extends in a direction away from the track , and is moveably engaged with the track via a rotatable connection such that the support arm can also rotate with respect to the track . a track that extends in at least a longitudinal direction; a support arm moveably engaged with the track such that it can traverse along the track in at least the longitudinal direction; a lift arm connected to the support arm and moveably engaged with the track via the support arm such that it can traverse along the track in at least the longitudinal direction; and, a combustor assembly engagement frame connected to the lift arm , wherein the combustor assembly engagement frame is configured to temporarily secure to at least a portion of a combustor assembly wherein the lift arm is rotatably connected to the support arm , the combustor assembly engagement frame comprises a cradle configuration adapted and configured to receive and support the combustor assembly , wherein the support arm rides along a rail on the track , extends in a direction away from the track , and is moveably engaged with the track via a rotatable connection such that the support arm can also rotate with respect to the track .
Blocking device for a timepiece comprising: - a first and a second movable part (8a', 8a"; 8s, 8t) kinematically connected to each other, the first movable part (8a'; 8s) comprising a drive device , the second movable part (8a"; 8t) comprising a stop device , - a rotary drive member intended to rotate in a single direction and arranged to cooperate with the drive device to move the first movable part (8a'; 8s), and thus the second movable part (8a"; 8t), alternately in opposite directions, and - a rotary blocking member intended to be energized and arranged to cooperate with the stop device to be blocked by the second movable part (8a"; 8t) and released at times determined by said movements of the second movable part (8a"; 8t), and in which the first movable part (8a'; 8s) has an opening with a closed contour receiving the rotary drive member and the wall of which defines the drive device , the said wall following over substantially 360° the trajectory of an apex of the rotary drive member in a reference frame linked to the first movable part (8a'; 8s) during the rotation of the rotary drive member in order to protect the blocking device from shocks. - a first and a second movable part (8a', 8a"; 8s, 8t) kinematically connected to each other, the first movable part (8a'; 8s) comprising a drive device , the second movable part (8a"; 8t) comprising a stop device , - a rotary drive member intended to rotate in a single direction and arranged to cooperate with the drive device to move the first movable part (8a'; 8s), and thus the second movable part (8a"; 8t), alternately in opposite directions, and - a rotary blocking member intended to be energized and arranged to cooperate with the stop device to be blocked by the second movable part (8a"; 8t) and released at times determined by said movements of the second movable part (8a"; 8t),
An adjustable spring latch for locks (A) that comprise a box-like body (B) inside which lever mechanisms are functionally associated for actuating at least one spring latch and at least one sliding latch, both of which can move from a retracted configuration to a protruding configuration with respect to said box-like body (B), said adjustable spring latch comprising a through hole , aligned with the direction of sliding within the lock (A), for rotatably accommodating a tubular element which is provided with an internal threading, a fixed threaded pin , integral with a respective lever mechanism for actuating said spring latch , being externally threaded for coupling to said tubular element , the screwing and the unscrewing of said tubular element on said threaded pin causing the sliding of said spring latch between a configuration of maximum protrusion and a configuration of minimum protrusion with respect to said box-like body (B), characterized in that said tubular element is externally grooved, said through hole of said spring latch being intercepted by a transverse channel for accommodating a locking prong for locking said tubular element , in the locked configuration said prong being interfering with the at least one groove of said tubular element , preventing translations thereof and permitting rotations thereof about its axis of symmetry.
Process to obtain a tensile armor configuration of a flexible conduit, said flexible conduit comprising at least one internal tensile armor and at least one external tensile armor superimposed to such internal tensile armor , each tensile armor composed of a helical winding of a plurality of wires , each wire having a terminal region , wherein the process comprises a preparation step, in which the external layers of the flexible conduit regarding the external tensile armor are cut to enable access to such external tensile armor , characterized in that the process comprising a disparity step, in which the terminal region of each wire of the external tensile armor and the terminal region of each wire of the internal tensile armor are cut, assigning a length difference (L) between a free end of a post cut terminal region of each wire of the external tensile armor and a free end of a post cut terminal region of each wire of the internal tensile armor , with the result that the wires of the external tensile armor are shorter than the wires of the internal tensile armor , the process comprising a forming step, in which the post cut terminal region of at least one wire of the internal tensile armor is plastically deformed obtaining a formed terminal region in an anchoring profile, wherein the formed terminal region has a wire length that is shorter than or equal to said length difference (L) between the free end of the at least one wire of the internal tensile armor , at a stage prior to the forming step, and the free ends of the wires of the external tensile armor .
A sensor for detecting objects in a surveillance area, having sensor components which are designed to detect objects, and having an evaluation unit in which an object detection signal is generated as a function of output signals from sensor components, wherein at least one gravity sensor is integrated in the sensor, wherein the measurement signals of the gravity sensor indicate its spatial orientation relative to the direction of gravity (F), characterised in that at least one sensor function is automatically selected in the sensor as a function of the measurement signals, whereby the sensor is parameterised. wherein at least one gravity sensor is integrated in the sensor, wherein the measurement signals of the gravity sensor indicate its spatial orientation relative to the direction of gravity (F), characterised in that at least one sensor function is automatically selected in the sensor as a function of the measurement signals, whereby the sensor is parameterised.
A method for monitoring a circuit breaker, wherein the circuit breaker comprising an actuating mechanism for actuating the closing and opening of a movable contact of the circuit breaker; the method comprising the following steps: obtaining a characteristic force associated with a linkage mechanism (21-23) of the actuating mechanism over the time; and determining the time point when the closing and/or opening of the circuit breaker occurs by identifying a variation of the force; wherein the step of determining further comprises: determining the moment when a variation increase of the characteristic force occurs as the time point of the closing of the circuit breaker; and determining the moment when a variation decrease of the characteristic force occurs as the time point of the opening of the circuit breaker. obtaining a characteristic force associated with a linkage mechanism (21-23) of the actuating mechanism over the time; and determining the time point when the closing and/or opening of the circuit breaker occurs by identifying a variation of the force; wherein the step of determining further comprises: determining the moment when a variation increase of the characteristic force occurs as the time point of the closing of the circuit breaker; and determining the moment when a variation decrease of the characteristic force occurs as the time point of the opening of the circuit breaker. determining the moment when a variation increase of the characteristic force occurs as the time point of the closing of the circuit breaker; and determining the moment when a variation decrease of the characteristic force occurs as the time point of the opening of the circuit breaker.
A communication apparatus comprising: generation means for generating an Extremely High Throughput, EHT, Multi-User, MU, Physical Layer Protocol Data Unit, PPDU; and transmission means for transmitting the EHT MU PPDU including: a Legacy-Short Training Field, L-STF; a Legacy-Long Training Field, L-LTF, configured to be communicated after the L-STF; a Legacy-Signal Field, L-SIG, configured to be communicated after the L-LTF; a first Signal Field related to an Extremely High Throughput, EHT, configured to be communicated after the L-SIG; a second Signal Field related to EHT configured to be communicated after the first Signal Field related to EHT, the second Signal Field related to EHT at least including: resource unit, RU, Allocation subfields, wherein in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth, the RU Allocation subfields are configured so that a total bit area for indicating information is a predetermined number of bits representing an RU allocation to each sub-band multiplied by 8; an Extremely High Throughput-Short Training Field, EHT-STF, configured to be communicated after the second Signal Field related to EHT; and an Extremely High Throughput-Long Training Field, EHT-LTF, configured to be communicated after the EHT-STF. generation means for generating an Extremely High Throughput, EHT, Multi-User, MU, Physical Layer Protocol Data Unit, PPDU; and transmission means for transmitting the EHT MU PPDU including: a Legacy-Short Training Field, L-STF; a Legacy-Long Training Field, L-LTF, configured to be communicated after the L-STF; a Legacy-Signal Field, L-SIG, configured to be communicated after the L-LTF; a first Signal Field related to an Extremely High Throughput, EHT, configured to be communicated after the L-SIG; a second Signal Field related to EHT configured to be communicated after the first Signal Field related to EHT, the second Signal Field related to EHT at least including: resource unit, RU, Allocation subfields, wherein in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth, the RU Allocation subfields are configured so that a total bit area for indicating information is a predetermined number of bits representing an RU allocation to each sub-band multiplied by 8; an Extremely High Throughput-Short Training Field, EHT-STF, configured to be communicated after the second Signal Field related to EHT; and an Extremely High Throughput-Long Training Field, EHT-LTF, configured to be communicated after the EHT-STF. resource unit, RU, Allocation subfields, wherein in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth, the RU Allocation subfields are configured so that a total bit area for indicating information is a predetermined number of bits representing an RU allocation to each sub-band multiplied by 8; an Extremely High Throughput-Short Training Field, EHT-STF, configured to be communicated after the second Signal Field related to EHT; and an Extremely High Throughput-Long Training Field, EHT-LTF, configured to be communicated after the EHT-STF.
Use of at least one antisense long non-coding RNA (antisense lncRNA) as a diagnosis marker for prostate cancer, wherein said at least one antisense IncRNA is selected from the group consisting of - asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1, - asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29, - asPDLIM5 of SEQ ID NO: 3 or 30, or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30, - a combination of asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1 and asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29, - a combination of asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1 and asPDLIM5 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30, - a combination of asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29 and asPDLIM5 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30, and - a combination of asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1, asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29, and asPDLIM5 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30. - asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1, - asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29, - asPDLIM5 of SEQ ID NO: 3 or 30, or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30, - a combination of asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1 and asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29, - a combination of asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1 and asPDLIM5 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30, - a combination of asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29 and asPDLIM5 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30, and - a combination of asFBXL7 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 1, asABCC4 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 2, 28 or 29, and asPDLIM5 or a RNA having a nucleotide sequence identity of at least 90 % with SEQ ID NO: 3 or 30.
Router comprising a plurality of first interfaces for transmitting data packets between the router and networks or network participants by wire and/or wirelessly, the router having at least one second interface for receiving and/or sending data from/to a remote terminal by wire and/or wirelessly, said second interface being physically separated from all of the first interfaces such that it is not possible to directly transmit data between the at least one second interface and the first interfaces, characterised in that the at least one second interface is communicatively connected to a non-volatile memory such that data can be written into the non-volatile memory and read out via the second interface, it being possible for data relating to the function of the router to be read from the non-volatile memory by the remote terminal, it being possible for data relating to the function of the router to be written by an operating device into the non-volatile memory via a third interface, at least one second interface being a passive RFID interface, as a result of which said at least one second interface is designed such that communication via said interface is possible even if the router is in a de-energised state.
A refrigerant compressor system , including a first refrigerant line that conducts expanded refrigerant, a second refrigerant line that conducts compressed refrigerant, at least one refrigerant compressor that is arranged between the first and the second refrigerant line and is driven by a motor , and a control unit for operating the refrigerant compressor system , characterised in that a plurality of input/output units are associated with the bus system that communicates with the respectively active central processing unit and hence communicate with the central processing unit that respectively controls the refrigerant compressor system , and in that redundant sensors are associated with the sensors that are primarily provided for operation, and in that the redundant sensors are connected to different input/output units of the control unit from those sensors primarily provided for operation.
A recombinant binding protein comprising a first, a second, a third, and a fourth ankyrin repeat domain, wherein said first ankyrin repeat domain has binding specificity for human VEGF-A and comprises an amino acid sequence that has at least 90% amino acid sequence identity with the amino acid sequence of SEQ ID NO:18, wherein said second ankyrin repeat domain has binding specificity for human HGF and comprises an amino acid sequence that has at least 90% amino acid sequence identity with the amino acid sequence of SEQ ID NO:26, wherein said third and fourth ankyrin repeat domains each have binding specificity for human serum albumin and comprise an amino acid sequence that has at least 90% amino acid sequence identity with the amino acid sequence of SEQ ID NO:50, wherein said first, second, third and fourth ankyrin repeat domains are in the order thirdsecond-first-fourth from N terminus to C terminus, and wherein said recombinant binding protein is capable of binding to HGF, VEGF-A, and serum albumin simultaneously. wherein said first, second, third and fourth ankyrin repeat domains are in the order thirdsecond-first-fourth from N terminus to C terminus, and wherein said recombinant binding protein is capable of binding to HGF, VEGF-A, and serum albumin simultaneously.