mhurhangee/patent-ind-claim-en huggingface dataset:
Loop taker handling device for loop taker modules with sliders (24 - 33), for holding the sliders in their respective axial positions during transport and also during use of the loop taker module in a tufting machine, wherein the device is formed by a clamping device with a number of clamping receivers (34 - 43) which are positioned in a row and configured for receiving sliders (24 - 33) that are movably held in the loop taker module . for holding the sliders in their respective axial positions during transport and also during use of the loop taker module in a tufting machine, wherein the device is formed by a clamping device with a number of clamping receivers (34 - 43) which are positioned in a row and configured for receiving sliders (24 - 33) that are movably held in the loop taker module .
An oral care system suitable for providing a liquid to an oral cavity of a mammal, wherein the liquid includes at least one ingredient, or agent, effective for providing a beneficial effect in an amount effective to provide the beneficial effect when contacted with the surfaces of the oral cavity, said system comprising, a reservoir for containing the liquid; means for directing the liquid onto a plurality of surfaces of said oral cavity , the directing means comprising a chamber for maintaining said liquid proximate said plurality of surfaces, said chamber defined by front and rear inner walls and a base inner wall of said directing means, said base wall extending between said front and rear inner walls , said front and rear inner walls comprising a plurality of openings , means for providing said liquid from the reservoir to said means for directing said liquid onto said surfaces of said oral cavity , means for providing the liquid from the directing means to the reservoir ; and means for providing reciprocation of said liquid over said plurality of surfaces. a reservoir for containing the liquid; means for directing the liquid onto a plurality of surfaces of said oral cavity , the directing means comprising a chamber for maintaining said liquid proximate said plurality of surfaces, said chamber defined by front and rear inner walls and a base inner wall of said directing means, said base wall extending between said front and rear inner walls , said front and rear inner walls comprising a plurality of openings , means for providing said liquid from the reservoir to said means for directing said liquid onto said surfaces of said oral cavity , means for providing the liquid from the directing means to the reservoir ; and means for providing reciprocation of said liquid over said plurality of surfaces.
A method of communication at a base station , said method comprising the steps of: identifying , for each of a plurality of hybrid automatic repeat request, HARQ, processes, an active indication or an inactive indication, wherein each of the plurality of HARQ processes is associated with a plurality of transport blocks to be transmitted in a data signal during a first transmission time interval, TTI; determining, for HARQ processes of the plurality of HARQ processes associated with the active indication, a new transmission state or a retransmission state; transmitting a control message for the data signal comprising the plurality of transport blocks to be transmitted during the first TTI, the control message comprising a plurality of HARQ process indications, wherein each HARQ process indication indicates one of the new transmission state or the retransmission state for each of the HARQ processes associated with the active indication; transmitting the data signal comprising a plurality of transport blocks during the first TTI, wherein each of the plurality of transport blocks corresponds to at least one of the new transmission state, the retransmission state or the inactive indication based at least in part on the control message. identifying , for each of a plurality of hybrid automatic repeat request, HARQ, processes, an active indication or an inactive indication, wherein each of the plurality of HARQ processes is associated with a plurality of transport blocks to be transmitted in a data signal during a first transmission time interval, TTI; determining, for HARQ processes of the plurality of HARQ processes associated with the active indication, a new transmission state or a retransmission state; transmitting a control message for the data signal comprising the plurality of transport blocks to be transmitted during the first TTI, the control message comprising a plurality of HARQ process indications, wherein each HARQ process indication indicates one of the new transmission state or the retransmission state for each of the HARQ processes associated with the active indication; transmitting the data signal comprising a plurality of transport blocks during the first TTI, wherein each of the plurality of transport blocks corresponds to at least one of the new transmission state, the retransmission state or the inactive indication based at least in part on the control message.
A composition comprising an extract of Ampelopsis grossedentata, an extract of Albizia julibrissin and a cosmetically acceptable topical carrier; wherein the extract of Ampelopsis grossedentata is a leaf extract obtained by homogenizing the leaves with 95% ethanol/water to form a suspension, maintaining the suspension in constant motion for 24 hours, and filtering and drying the resulting suspension under low pressure not exceeding 40°C; wherein the extract of Albizia julibrissin is a flower extract obtained by homogenizing the flowers with 95% ethanol/water to form a suspension, maintaining the suspension in constant motion for 24 hours, and filtering and drying the resulting suspension under low pressure not exceeding 40°C; and wherein the weight ratio in the composition of the extracts of Ampelopsis grossedentata to Albizia julibrissin is between 1:7 to 7:1. wherein the extract of Ampelopsis grossedentata is a leaf extract obtained by homogenizing the leaves with 95% ethanol/water to form a suspension, maintaining the suspension in constant motion for 24 hours, and filtering and drying the resulting suspension under low pressure not exceeding 40°C; wherein the extract of Albizia julibrissin is a flower extract obtained by homogenizing the flowers with 95% ethanol/water to form a suspension, maintaining the suspension in constant motion for 24 hours, and filtering and drying the resulting suspension under low pressure not exceeding 40°C; and wherein the weight ratio in the composition of the extracts of Ampelopsis grossedentata to Albizia julibrissin is between 1:7 to 7:1.
Apparatus for determining a geographical position of a vehicle , having: a satellite navigation receiver designed to receive satellite signals; a sensor designed to capture a motion parameter of the vehicle ; and a processor designed to generate and transmit a V2X communication message, wherein the V2X communication message indicates the motion parameter and the geographical position of the vehicle , characterized in that the processor is furthermore designed to determine the geographical position of the vehicle by means of the satellite signals in response to an initiating of the generation of the V2X communication message. a satellite navigation receiver designed to receive satellite signals; a sensor designed to capture a motion parameter of the vehicle ; and a processor designed to generate and transmit a V2X communication message, wherein the V2X communication message indicates the motion parameter and the geographical position of the vehicle , characterized in that the processor is furthermore designed to determine the geographical position of the vehicle by means of the satellite signals in response to an initiating of the generation of the V2X communication message.
An aluminum alloy comprising 9.0 - 10.5 wt. % Si, 0.15 - 0.25 wt. % Fe, 0.30 - 0.40 wt. % Cu, 0.05 - 0.15 wt. % Mn, 0.15 - 0.30 wt. % Mg, 0.15 - 0.30 wt. % Zn, 0.10 - 0.35 wt. % Bi, up to 0.15 wt. % Sb, up to 0.05 wt. % Sr, up to 0.05 wt. % Na, up to 0.10 wt. % Ti, up to 0.15 wt. % of impurities, and balance Al.
Glazing for displaying information, comprising an assembly of two transparent sheets which are made of inorganic glass or plastics material, the two sheets being interconnected by an insert made of a thermoplastic or adhesive material or by multilayer sheets incorporating such an insert, at least one phosphor material allowing said display being integrated into said glazing, wherein at least one of said phosphor materials comprises a benzene ring substituted at least by: - at least a first ester group -COOR, in which R is a linear or branched carbon group comprising a main carbon chain of at least six carbon atoms bonded together consecutively, said group R comprising, if said chain is linear, more than 10 carbon atoms in total and, if said chain is branched, at least 7 carbon atoms in total, - two hydroxyl groups -OH, the two hydroxyl groups preferably being in the para position on the benzene ring. - at least a first ester group -COOR, in which R is a linear or branched carbon group comprising a main carbon chain of at least six carbon atoms bonded together consecutively, said group R comprising, if said chain is linear, more than 10 carbon atoms in total and, if said chain is branched, at least 7 carbon atoms in total, - two hydroxyl groups -OH, the two hydroxyl groups preferably being in the para position on the benzene ring.
Connexin 43 for use in the treatment of cancer, wherein the cancer is characterized by the activation of a mitogen-activated protein kinase (MAPK) selected from the list consisting of: BRAF, RAS, MEK or ERK.
An overpressure relief flap apparatus for a medium or high voltage switchgear, the apparatus comprising: - a lever ; and - a microswitch ; wherein, the lever is attached to an overpressure relief flap of a compartment of a switchgear; wherein, the microswitch is mounted to a frame of the compartment of the switchgear; wherein, when activated the microswitch is configured to transmit a trip signal to a circuit breaker of the switchgear; wherein, the lever is configured to activate the switch when the overpressure relief flap opens; and characterised in that the lever is configured to enable a user to operate the lever by hand to bend the lever to activate the microswitch with the lever when the overpressure relief flap is in a closed position. - a lever ; and - a microswitch ; wherein, the lever is attached to an overpressure relief flap of a compartment of a switchgear; wherein, the microswitch is mounted to a frame of the compartment of the switchgear; wherein, when activated the microswitch is configured to transmit a trip signal to a circuit breaker of the switchgear; wherein, the lever is configured to activate the switch when the overpressure relief flap opens; and characterised in that the lever is configured to enable a user to operate the lever by hand to bend the lever to activate the microswitch with the lever when the overpressure relief flap is in a closed position. wherein, the lever is attached to an overpressure relief flap of a compartment of a switchgear; wherein, the microswitch is mounted to a frame of the compartment of the switchgear; wherein, when activated the microswitch is configured to transmit a trip signal to a circuit breaker of the switchgear; wherein, the lever is configured to activate the switch when the overpressure relief flap opens; and characterised in that the lever is configured to enable a user to operate the lever by hand to bend the lever to activate the microswitch with the lever when the overpressure relief flap is in a closed position.
Process for manufacturing sheet metal made of aluminium alloy for a metal bottle or aerosol case, manufactured by drawing-ironing and necking, including the following steps: Casting a rolling ingot made of aluminium alloy having the composition (% by weight): Si: 0.20 - 0.35, Fe: 0.30 - 0.55, Cu: 0.05 - 0.20, Mn: 0.70 - 0.90, Mg: 0.80 - 1.25, Zn: ≤ 0.25, Ti: < 0.10, other elements < 0.05 each, and < 0.15 in total, the rest aluminium, Scalping and homogenising the rolling ingot at a temperature of 550 to 630°C for at least one hour, Hot rolling, First step of cold rolling with a rolling mill draft of 35 to 80%, Recrystallisation annealing, Resuming the cold rolling with a rolling mill draft of 10 to 35% up to a thickness of 0.35 to 1.0mm, characterised in that the recrystallisation annealing is carried out with a time of at least one hour at a temperature of 300 to 400°C. Si: 0.20 - 0.35, Fe: 0.30 - 0.55, Cu: 0.05 - 0.20, Mn: 0.70 - 0.90, Mg: 0.80 - 1.25, Zn: ≤ 0.25, Ti: < 0.10, other elements < 0.05 each, and < 0.15 in total, the rest aluminium, Scalping and homogenising the rolling ingot at a temperature of 550 to 630°C for at least one hour, Hot rolling, First step of cold rolling with a rolling mill draft of 35 to 80%, Recrystallisation annealing, Resuming the cold rolling with a rolling mill draft of 10 to 35% up to a thickness of 0.35 to 1.0mm, characterised in that the recrystallisation annealing is carried out with a time of at least one hour at a temperature of 300 to 400°C.
A method comprising: selecting, by a network node, a group of network function instances, wherein the group of network function instances comprises a group of virtualized network instances configured to provide a same type of network function, the selecting based on information indicating membership of a network function instance in the group of network functions instances and the information including session information for a request associated with a session of a user equipment, the session information indicating whether the network function instance and/or the group of network function instances was assigned to the user equipment for a previous session; and forwarding, by the network node, the request to at least one network function instance within the selected group. selecting, by a network node, a group of network function instances, wherein the group of network function instances comprises a group of virtualized network instances configured to provide a same type of network function, the selecting based on information indicating membership of a network function instance in the group of network functions instances and the information including session information for a request associated with a session of a user equipment, the session information indicating whether the network function instance and/or the group of network function instances was assigned to the user equipment for a previous session; and forwarding, by the network node, the request to at least one network function instance within the selected group.
A device for signal compensation in medical X-ray images, the device comprising: - a generation module configured to generate an X-ray ghosting image based on an X-ray detector read-out subsequent to a last X-ray exposure of a plurality of X-ray exposures; - a scaling module configured to scale the X-ray ghosting image into a scaled X-ray ghosting image employing a scaling that is different for each subsequent X-ray image by making the scaling dependent on the time-dependent decay of the ghosting image; and - a subtraction module configured to subtract each of the such scaled X-ray ghosting images from each of the corresponding subsequent X-ray images recorded during a respective subsequent X-ray exposure of the plurality of X-ray exposures. - a generation module configured to generate an X-ray ghosting image based on an X-ray detector read-out subsequent to a last X-ray exposure of a plurality of X-ray exposures; - a scaling module configured to scale the X-ray ghosting image into a scaled X-ray ghosting image employing a scaling that is different for each subsequent X-ray image by making the scaling dependent on the time-dependent decay of the ghosting image; and - a subtraction module configured to subtract each of the such scaled X-ray ghosting images from each of the corresponding subsequent X-ray images recorded during a respective subsequent X-ray exposure of the plurality of X-ray exposures.
A method for the detection of a crosstalk phenomenon in the communication between a wayside transmission unit, WTU , especially a balise, and an On-board Unit, OBU, of a railway vehicle , wherein the OBU comprises an antenna unit , the method comprising the steps of: - receiving (S 1 ) an excitation signal of the WTU via the antenna unit in a moving state of the railway vehicle ; - measuring (S 2 ) an electric and/or a magnetic field in a near field of the WTU by means of a probe connected to the antenna unit and arranged in the near field region of the WTU when passing it upon reception of the excitation signal; wherein the method further comprises the step of - performing (S3) a near field to far field transformation, NF2FFT, on the field measured in the step of measuring (S2) to detect a presence of a crosstalk phenomenon by determining parameters, which are the beam width and the polarization of the NF2FFT curve or other parameters such as the directivity and/or the gain of the NF2FFT curve. - receiving (S 1 ) an excitation signal of the WTU via the antenna unit in a moving state of the railway vehicle ; - measuring (S 2 ) an electric and/or a magnetic field in a near field of the WTU by means of a probe connected to the antenna unit and arranged in the near field region of the WTU when passing it upon reception of the excitation signal; - performing (S3) a near field to far field transformation, NF2FFT, on the field measured in the step of measuring (S2) to detect a presence of a crosstalk phenomenon by determining parameters, which are the beam width and the polarization of the NF2FFT curve or other parameters such as the directivity and/or the gain of the NF2FFT curve.
A data processing device, characterized in that the data processing device comprises: a data collection unit , configured to collect data transmitted in a network, and divide the collected data, according to a predetermined feature, into known attack data and unknown attack data; and a data conversion unit , configured to replace, according to a mapping database, at least a portion of content included in the unknown attack data with corresponding shorter identification codes to reduce the data size, wherein the data conversion unit comprises: a data matching unit , configured to determine whether the at least a portion of content in the unknown attack data is identical to historical data previously transmitted in the network and included in the mapping database; and a data replacement unit , configured to replace identical content with identification codes corresponding to the historical data in the mapping database when it is determined that the at least a portion of content in the unknown attack data is identical to the historical data. a data collection unit , configured to collect data transmitted in a network, and divide the collected data, according to a predetermined feature, into known attack data and unknown attack data; and a data conversion unit , configured to replace, according to a mapping database, at least a portion of content included in the unknown attack data with corresponding shorter identification codes to reduce the data size, wherein the data conversion unit comprises: a data matching unit , configured to determine whether the at least a portion of content in the unknown attack data is identical to historical data previously transmitted in the network and included in the mapping database; and a data replacement unit , configured to replace identical content with identification codes corresponding to the historical data in the mapping database when it is determined that the at least a portion of content in the unknown attack data is identical to the historical data. a data matching unit , configured to determine whether the at least a portion of content in the unknown attack data is identical to historical data previously transmitted in the network and included in the mapping database; and a data replacement unit , configured to replace identical content with identification codes corresponding to the historical data in the mapping database when it is determined that the at least a portion of content in the unknown attack data is identical to the historical data.
An encoding method based on a quasi-cyclic low-density parity check, QC-LDPC, code, comprising: determining (S301, S401) a size of a shift matrix based on a length of an information sequence and a length of an identifier sequence; constructing (S302, S403) a check matrix based on the size of the shift matrix and a base matrix; and performing (S303, S404) QC-LDPC encoding on the information sequence and the identifier sequence based on the check matrix; wherein the identifier sequence is a non-all-zero sequence; wherein the size of the shift matrix is determined (S402) according to the following formula: (K+L)/(n b -m b ) to ensure that the check matrix can accommodate the information sequence and the identifier sequence, wherein K is the length of the information sequence, L is the length of the identifier sequence, n b is a quantity of columns of the base matrix, and m b is a quantity of rows of the base matrix. determining (S301, S401) a size of a shift matrix based on a length of an information sequence and a length of an identifier sequence; constructing (S302, S403) a check matrix based on the size of the shift matrix and a base matrix; and performing (S303, S404) QC-LDPC encoding on the information sequence and the identifier sequence based on the check matrix; wherein the identifier sequence is a non-all-zero sequence; wherein the size of the shift matrix is determined (S402) according to the following formula: (K+L)/(n b -m b ) to ensure that the check matrix can accommodate the information sequence and the identifier sequence, wherein K is the length of the information sequence, L is the length of the identifier sequence, n b is a quantity of columns of the base matrix, and m b is a quantity of rows of the base matrix.
Apparatus (gNB) comprising: one or more processors, and memory storing instructions that, when executed by the one or more processors, cause the apparatus to: instruct (S10) a first cell to provide, to a terminal (UE), a first machine learning model instance associated to the first cell and a second machine learning model instance associated to a second cell different from the first cell; check if the terminal is in a predefined overlapping area; inhibit the providing the second machine learning model instance to the terminal if the terminal is outside the predefined overlapping area; instruct the first cell to configure the terminal with a measurement event; check if the terminal reports the measurement event; and inhibit the providing the second machine learning model instance to the terminal if the terminal does not report the measurement event. one or more processors, and memory storing instructions that, when executed by the one or more processors, cause the apparatus to: instruct (S10) a first cell to provide, to a terminal (UE), a first machine learning model instance associated to the first cell and a second machine learning model instance associated to a second cell different from the first cell; check if the terminal is in a predefined overlapping area; inhibit the providing the second machine learning model instance to the terminal if the terminal is outside the predefined overlapping area; instruct the first cell to configure the terminal with a measurement event; check if the terminal reports the measurement event; and instruct (S10) a first cell to provide, to a terminal (UE), a first machine learning model instance associated to the first cell and a second machine learning model instance associated to a second cell different from the first cell; check if the terminal is in a predefined overlapping area; inhibit the providing the second machine learning model instance to the terminal if the terminal is outside the predefined overlapping area; instruct the first cell to configure the terminal with a measurement event; check if the terminal reports the measurement event; and