mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device for configuring a head-up display of a vehicle, comprising: a transceiver , configured to be communicatively connected to the head-up display and a camera; a storage medium , storing a quantum machine learning model ; and a processor , coupled to the storage medium and the transceiver , wherein the processor is configured to: obtain a first coordinate value corresponding to a line of sight of a person through the camera, and obtain a statistic value corresponding to the first coordinate value; input the first coordinate value and the statistic value to the quantum machine learning model , and a first estimated statistic value is obtained; configure a display area of the head-up display by the first coordinate value and the first estimated statistic value; characterized in that the processor is further configured to: determine a writing direction of a sentence in a display content of the head-up display; and configure a position of the display content in the display area according to the writing direction. a transceiver , configured to be communicatively connected to the head-up display and a camera; a storage medium , storing a quantum machine learning model ; and a processor , coupled to the storage medium and the transceiver , wherein the processor is configured to: obtain a first coordinate value corresponding to a line of sight of a person through the camera, and obtain a statistic value corresponding to the first coordinate value; input the first coordinate value and the statistic value to the quantum machine learning model , and a first estimated statistic value is obtained; configure a display area of the head-up display by the first coordinate value and the first estimated statistic value; characterized in that the processor is further configured to: determine a writing direction of a sentence in a display content of the head-up display; and configure a position of the display content in the display area according to the writing direction. obtain a first coordinate value corresponding to a line of sight of a person through the camera, and obtain a statistic value corresponding to the first coordinate value; input the first coordinate value and the statistic value to the quantum machine learning model , and a first estimated statistic value is obtained; configure a display area of the head-up display by the first coordinate value and the first estimated statistic value; characterized in that the processor is further configured to: determine a writing direction of a sentence in a display content of the head-up display; and configure a position of the display content in the display area according to the writing direction. determine a writing direction of a sentence in a display content of the head-up display; and configure a position of the display content in the display area according to the writing direction.
An optical assembly, wherein the assembly comprises: a main body and a total reflection device , wherein the main body comprises a fiber connection portion and a light processing portion , wherein the fiber connection portion is connected to the light processing portion ; the fiber connection portion is connected to an external fiber; and a light splitting surface is disposed in the light processing portion , wherein the light splitting surface is configured to reflect a part of incident rays to a monitor photodetector MPD, and transmit the other part of the incident rays; and the total reflection device is disposed in the light processing portion , configured to reflect, to the fiber connected to the fiber connection portion , the incident rays transmitted by the light splitting surface , characterized in that the light splitting surface is in contact with the total reflection device .
A reception apparatus comprising: a demodulation section configured to demodulate a packet included in each of a plurality of Physical Layer Pipes, PLPs, of a broadcast stream; and a processing section configured to process the packet demodulated by the demodulation section, the demodulation section and the processing section being interconnected via a single interface, the broadcast stream supporting an IP transmission method, PLP information including information for identifying each PLP being added to data included in each PLP, the processing section identifying the PLP to which the packet input via the single interface from the demodulation section belongs using the PLP information, wherein the demodulation section reallocates at least either an IP address or a port number in such a manner that the IP address and the port number of the IP packet have values in a unique combination for each PLP. a demodulation section configured to demodulate a packet included in each of a plurality of Physical Layer Pipes, PLPs, of a broadcast stream; and a processing section configured to process the packet demodulated by the demodulation section, the demodulation section and the processing section being interconnected via a single interface, the broadcast stream supporting an IP transmission method, PLP information including information for identifying each PLP being added to data included in each PLP, the processing section identifying the PLP to which the packet input via the single interface from the demodulation section belongs using the PLP information, wherein the demodulation section reallocates at least either an IP address or a port number in such a manner that the IP address and the port number of the IP packet have values in a unique combination for each PLP.
An output unit for a provision individually per track of sheet material for placing beneath products fed on two or multiple tracks, in particular beneath food portions, said output unit comprising a draw-in device which is configured to draw in individually per track a respective one material web of the sheet material per track and which in particular has at least one driven draw-in shaft and at least one draw-in pressure unit ; a separation device which is configured to separate the sheet material from the material webs ; and an ejection device which is configured to discharge sheet material on two or multiple tracks, characterized in that the ejection device comprises a driven ejection roller and an ejection counter-unit which forms an ejection gap for the sheet material together with the ejection roller , wherein the ejection roller is jointly associated with at least two tracks . said output unit comprising a draw-in device which is configured to draw in individually per track a respective one material web of the sheet material per track and which in particular has at least one driven draw-in shaft and at least one draw-in pressure unit ; a separation device which is configured to separate the sheet material from the material webs ; and an ejection device which is configured to discharge sheet material on two or multiple tracks, the ejection device comprises a driven ejection roller and an ejection counter-unit which forms an ejection gap for the sheet material together with the ejection roller , wherein the ejection roller is jointly associated with at least two tracks .
A method for determining a status of a door with respect to a door frame , the method comprising: providing an accelerometer in a door lock (20; 104; 200); providing a magnetometer in the door lock (20; 104; 200); determining accelerometer data associated with the door using the accelerometer ; determining a velocity of the door moving from one of an open position and a closed position to the other of the open position and the closed position using the accelerometer data; determining a magnetic field value with the magnetometer at one of the open position and the closed position of the door ; providing a plurality of operating state thresholds which establish preferred limits of operation of the door ; determining whether acceleration of the door is maintained within the preferred limits of operation of the door to indicate an acceptable operating state of the door , or whether the acceleration exceeds an upper threshold of operation of the door to indicate an unacceptable operating state of the door ; providing a status of the door with respect to the door frame using the determined accelerometer data and the determined magnetometer data; and providing an alert indicating that an unacceptable condition associated with operation of the door has occurred when the door is operating in the unacceptable operating state, wherein the providing an alert includes providing an alert if the determined velocity of the door is zero and the determined magnetic field value is different than the determined magnetic field value at the one of the open position and the closed position of the door . providing an accelerometer in a door lock (20; 104; 200); providing a magnetometer in the door lock (20; 104; 200); determining accelerometer data associated with the door using the accelerometer ; determining a velocity of the door moving from one of an open position and a closed position to the other of the open position and the closed position using the accelerometer data; determining a magnetic field value with the magnetometer at one of the open position and the closed position of the door ; providing a plurality of operating state thresholds which establish preferred limits of operation of the door ; determining whether acceleration of the door is maintained within the preferred limits of operation of the door to indicate an acceptable operating state of the door , or whether the acceleration exceeds an upper threshold of operation of the door to indicate an unacceptable operating state of the door ; providing a status of the door with respect to the door frame using the determined accelerometer data and the determined magnetometer data; and providing an alert indicating that an unacceptable condition associated with operation of the door has occurred when the door is operating in the unacceptable operating state, wherein the providing an alert includes providing an alert if the determined velocity of the door is zero and the determined magnetic field value is different than the determined magnetic field value at the one of the open position and the closed position of the door .
Plug connector housing for a plug connector, having - a main body made from a plastics material; - a latching installation for mechanically connecting to a corresponding mating latching installation of a mating plug connector, wherein the latching installation has a first connection portion by way of which the latching installation is integrally connected to the main body , wherein a void , which extends along a longitudinal axis (L F ) on the main body , is at least in portions formed between the latching installation and the main body ; - a first protective element and a second protective element which, proceeding from the main body , extend integrally in each case in such a manner that the latching installation is disposed between the protective elements , wherein each one of the protective elements in at least one covered region (V) covers the void configured between the latching installation and the main body in a transverse direction (Q), the latter being transverse to the longitudinal axis (L F ), wherein each one of the protective elements moreover configures at least one access region (Z) by way of which the void is accessible along the transverse direction (Q), characterized in that each one of the covered regions (V) faces a respective access region (Z) of the respective other protective element along the transverse direction. - a main body made from a plastics material; - a latching installation for mechanically connecting to a corresponding mating latching installation of a mating plug connector, wherein the latching installation has a first connection portion by way of which the latching installation is integrally connected to the main body , wherein a void , which extends along a longitudinal axis (L F ) on the main body , is at least in portions formed between the latching installation and the main body ; - a first protective element and a second protective element which, proceeding from the main body , extend integrally in each case in such a manner that the latching installation is disposed between the protective elements , wherein each one of the protective elements in at least one covered region (V) covers the void configured between the latching installation and the main body in a transverse direction (Q), the latter being transverse to the longitudinal axis (L F ), wherein each one of the protective elements moreover configures at least one access region (Z) by way of which the void is accessible along the transverse direction (Q), characterized in that each one of the covered regions (V) faces a respective access region (Z) of the respective other protective element along the transverse direction.
Operating method for a rolling mill, - wherein a metal strip is fed to a rolling stand of the rolling mill at an entry speed (v) by a feeding device arranged upstream of the rolling stand , - wherein the metal strip is rolled in the rolling stand , - wherein a thickness value (d) for the thickness of the metal strip is detected in each case for successive portions of the metal strip by means of a measuring device arranged between the feeding device and the rolling stand , - wherein the detected thickness values (d) are fed to a control device of the rolling mill, - wherein the control device determines a respective provisional thickness deviation (δd) on the basis of the deviation of the respective thickness value (d) from a setpoint thickness (d*) for the respective portion of the metal strip , - wherein the control device determines final thickness deviations on the basis of the provisional thickness deviations (δd), - wherein the control device determines a control value (A2, A3) for the rolling stand and/or the feeding device in each case for the portions of the metal strip and outputs the respective control value (A2, A3) to the rolling stand and/or the feeding device at the correct time, characterized in that the control device determines the respective control value (A2, A3) on the basis of the final thickness deviation (δd') of the respective portion of the metal strip and also the final thickness deviations of a plurality of portions of the metal strip preceding and/or succeeding the respective portion of the metal strip , with allowance for a description of the inverse frequency response of the rolling stand and/or the feeding device and/or the measuring device . - wherein a metal strip is fed to a rolling stand of the rolling mill at an entry speed (v) by a feeding device arranged upstream of the rolling stand , - wherein the metal strip is rolled in the rolling stand , - wherein a thickness value (d) for the thickness of the metal strip is detected in each case for successive portions of the metal strip by means of a measuring device arranged between the feeding device and the rolling stand , - wherein the detected thickness values (d) are fed to a control device of the rolling mill, - wherein the control device determines a respective provisional thickness deviation (δd) on the basis of the deviation of the respective thickness value (d) from a setpoint thickness (d*) for the respective portion of the metal strip , - wherein the control device determines final thickness deviations on the basis of the provisional thickness deviations (δd), - wherein the control device determines a control value (A2, A3) for the rolling stand and/or the feeding device in each case for the portions of the metal strip and outputs the respective control value (A2, A3) to the rolling stand and/or the feeding device at the correct time,
A reinforcing carbon fiber bundle comprising a sizing agent adhered to surfaces of carbon fibers, characterized in that the sizing agent comprises at least two components, a first component of the at least two components is either clearly a solid at 150 °C or in the case where the first component is a resin having no melting point has a sufficiently high glass transition temperature and is not in a molten state at 150 °C, a weight ratio of the first component to the second component is 2/1 to 20/1, and a second component of the at least two components has fluidity at 150°C, wherein the second component is a polyamide ternary copolymer resin, wherein having fluidity means that the viscosity at a shear rate of 10 s -1 at that temperature is less than 500 Pa·s, and wherein the second component acts as a component for film formation and carries particles of the first component on the surfaces of the carbon fibers. characterized in that the sizing agent comprises at least two components, a first component of the at least two components is either clearly a solid at 150 °C or in the case where the first component is a resin having no melting point has a sufficiently high glass transition temperature and is not in a molten state at 150 °C, a weight ratio of the first component to the second component is 2/1 to 20/1, and a second component of the at least two components has fluidity at 150°C, wherein the second component is a polyamide ternary copolymer resin, wherein having fluidity means that the viscosity at a shear rate of 10 s -1 at that temperature is less than 500 Pa·s, and wherein the second component acts as a component for film formation and carries particles of the first component on the surfaces of the carbon fibers.
An environment forming apparatus comprising: an environment forming chamber in which an object for which processing, including environmental testing or heat treatment, is to be executed is accommodated; an air conditioning chamber configured to communicates with the environment forming chamber; an air conditioning unit that is disposed in the air conditioning chamber and is configured to generates air-conditioned air by adjusting an environmental element of air; a plurality of blower fans configured to circulate the air-conditioned air between the air conditioning chamber and the environment forming chamber; a plurality of measurement units configured to measure the environmental element at a plurality of locations in the environment forming chamber and configured to output a plurality of measurement values; and a setting unit that is capable of individually setting rotation speed of each blower fan of the plurality of blower fans, wherein the setting unit is configured to changes rotation speed of the plurality of blower fans a plurality of times and is configured to acquires the plurality of measurement values after each change in a setting period before a processing period in which the processing is executed, and is configured to executes setting processing for setting rotation speed of the each blower fan in the processing period based on the plurality of measurement values, characterized in that the setting unit is configured to randomly decide a change value of rotation speed when changing rotation speed of the plurality of blower fans. an environment forming chamber in which an object for which processing, including environmental testing or heat treatment, is to be executed is accommodated; an air conditioning chamber configured to communicates with the environment forming chamber; an air conditioning unit that is disposed in the air conditioning chamber and is configured to generates air-conditioned air by adjusting an environmental element of air; a plurality of blower fans configured to circulate the air-conditioned air between the air conditioning chamber and the environment forming chamber; a plurality of measurement units configured to measure the environmental element at a plurality of locations in the environment forming chamber and configured to output a plurality of measurement values; and a setting unit that is capable of individually setting rotation speed of each blower fan of the plurality of blower fans, wherein the setting unit is configured to changes rotation speed of the plurality of blower fans a plurality of times and is configured to acquires the plurality of measurement values after each change in a setting period before a processing period in which the processing is executed, and is configured to executes setting processing for setting rotation speed of the each blower fan in the processing period based on the plurality of measurement values, characterized in that the setting unit is configured to randomly decide a change value of rotation speed when changing rotation speed of the plurality of blower fans.
A method for producing a 3D item by means of fused deposition modelling, the method comprising: - a 3D printing stage comprising: layer-wise depositing 3D printable material , wherein the 3D printable material comprises 3D printable core material and 3D printable shell material , to provide the 3D item comprising a core-shell layer of 3D printed material , wherein the 3D printed material comprises a core comprising 3D printed core material and a shell comprising 3D printed shell material , wherein the shell at least partly encloses the core , characterized in that the 3D printable core material comprises a pore forming material with a first concentration c1, wherein the 3D printable shell material comprises the pore forming material with a second concentration c2, wherein c2/c1≤0.9; and - a pore forming stage comprising: heating one or more of (i) the printable material and (ii) the 3D printed material . - a 3D printing stage comprising: layer-wise depositing 3D printable material , wherein the 3D printable material comprises 3D printable core material and 3D printable shell material , to provide the 3D item comprising a core-shell layer of 3D printed material , wherein the 3D printed material comprises a core comprising 3D printed core material and a shell comprising 3D printed shell material , wherein the shell at least partly encloses the core , characterized in that the 3D printable core material comprises a pore forming material with a first concentration c1, wherein the 3D printable shell material comprises the pore forming material with a second concentration c2, wherein c2/c1≤0.9; and - a pore forming stage comprising: heating one or more of (i) the printable material and (ii) the 3D printed material .
A lettuce plant resistant to Bremia lactucae races Bl:1, Bl:2, Bl:4, Bl:5, Bl:6, Bl:7, Bl:10, Bl:12, Bl:13, Bl:14, Bl:15, Bl:16, Bl:17, Bl:18, Bl:21, Bl:22, Bl:23, Bl:24, Bl:25 and Bl:28, which plant comprises the R-genes Dm3, Dm6 and R18 in coupling phase that confers resistance to Bremia lactucae races Bl:1, Bl:2, Bl:4, Bl:5, Bl:6, Bl:7, B1:10, B1:12, B1:13, Bl:14, Bl:15, B1:16, Bl:17, Bl:18, Bl:21, Bl:22, Bl:23, Bl:24, Bl:25 and Bl:28 and not to Bremia lactucae races Bl:20, Bl:26, and Bl:27, and which R-genes are obtainable by introgression from a plant grown from seeds of which a representative sample was deposited under accession number NCIMB 41761, and wherein the said R-genes in the seeds of seed deposit number NCIMB 41761 are at least linked to marker SCM05 with SEQ ID NO:4, marker LR0029 with SEQ ID NO:5, and marker LK0036 with SEQ ID NO:6, and optionally also to one or more of the markers selected from the group consisting of marker SCW09 with SEQ ID NO:1, marker CL922 with SEQ ID NO:2, marker SCV12 with SEQ ID NO:3, marker LR0096 with SEQ ID NO:7, and marker SCI11 with SEQ ID NO:8.
A pharmaceutical tablet comprising (i) norethindrone acetate (NETA) in the range from 0.05 to 0.35 mg per unit dosage form or the corresponding amount of norethindrone (NET) or a corresponding amount of a soluble ester or a salt of NET, and (ii) a cellulosic binder in the range from 2 to 10% w/w, and (iii) a cellulosic film-coating in the range 1.5 to 5% w/w. (i) norethindrone acetate (NETA) in the range from 0.05 to 0.35 mg per unit dosage form or the corresponding amount of norethindrone (NET) or a corresponding amount of a soluble ester or a salt of NET, and (ii) a cellulosic binder in the range from 2 to 10% w/w, and (iii) a cellulosic film-coating in the range 1.5 to 5% w/w.