mhurhangee/patent-ind-claim-en huggingface dataset:
A data indicating method, comprising: receiving (2b02), by a terminal, downlink control information, wherein the downlink control information comprises a first information field and a second information field, the first information field is a new data indication information field, and the second information field is used to indicate a code block group information; characterized in that the method further comprises: determining (2b05) that the number of code block groups comprised in a new transport block is K when the first information field indicates that the new transport block is scheduled by the downlink control information, and values of consecutive first K bits in the second information field are all a preset value; wherein the preset value is 1. receiving (2b02), by a terminal, downlink control information, wherein the downlink control information comprises a first information field and a second information field, the first information field is a new data indication information field, and the second information field is used to indicate a code block group information; characterized in that the method further comprises: determining (2b05) that the number of code block groups comprised in a new transport block is K when the first information field indicates that the new transport block is scheduled by the downlink control information, and values of consecutive first K bits in the second information field are all a preset value; wherein the preset value is 1.
An adhesive composition comprising: 20 to 40 wt. % of an amorphous polyolefin having a density of less than 1 g/cm 3 , a glass transition temperature of < -50 °C, determined by DIN 11357-2, and a softening point of 10-120 °C as per ASTM D3104; 35 to 60 wt. % of a tackifier; 0.1 to 10 wt. % of at least an additive; and 5 to 35 wt. % of a partially hydrogenated styrenic block copolymer; wherein the partially hydrogenated styrenic block copolymer is obtained by hydrogenation of a styrenic block copolymer comprising at least one polymer block A derived from a monoalkenyl arene monomer and at least one polymer block B derived from a conjugated diene monomer, the polymer block B has a hydrogenation level of 20 to 97 mol%, based on the total mol of the polymerized conjugated diene monomer in the polymer block B, determined using proton NMR; wherein the partially hydrogenated styrenic block copolymer has a residual unsaturation (RU) of less than 20 meq/g, measured using nuclear magnetic resonance; wherein the adhesive composition has a 180° peel adhesion value of 12 - 0.1 N/25 mm determined according to FTM-1, and an odor score of less than 2 according to Odor Panel Testing method as described in specification, and wherein the adhesive composition contains 0 to 15 wt. % of mineral oil. 20 to 40 wt. % of an amorphous polyolefin having a density of less than 1 g/cm 3 , a glass transition temperature of < -50 °C, determined by DIN 11357-2, and a softening point of 10-120 °C as per ASTM D3104; 35 to 60 wt. % of a tackifier; 0.1 to 10 wt. % of at least an additive; and 5 to 35 wt. % of a partially hydrogenated styrenic block copolymer; wherein the partially hydrogenated styrenic block copolymer is obtained by hydrogenation of a styrenic block copolymer comprising at least one polymer block A derived from a monoalkenyl arene monomer and at least one polymer block B derived from a conjugated diene monomer, the polymer block B has a hydrogenation level of 20 to 97 mol%, based on the total mol of the polymerized conjugated diene monomer in the polymer block B, determined using proton NMR; wherein the partially hydrogenated styrenic block copolymer has a residual unsaturation (RU) of less than 20 meq/g, measured using nuclear magnetic resonance; wherein the adhesive composition has a 180° peel adhesion value of 12 - 0.1 N/25 mm determined according to FTM-1, and an odor score of less than 2 according to Odor Panel Testing method as described in specification, and wherein the adhesive composition contains 0 to 15 wt. % of mineral oil.
A driver state estimation device configured to estimate a state of a driver who is in a movable body, the driver state estimation device comprising: a first measurement section configured to measure a first index value (id1) correlated with an amount of an attention source allocated to top-down attention of the driver; a second measurement section configured to measure a second index value (id2) correlated with an amount of the attention source allocated to bottom-up attention of the driver; and an estimation section configured to estimate the driver state including an attention function degraded state of the driver on the basis of the first index value (id1) and the second index value (id2), wherein in the case where the first index value (id1) falls below a predetermined first threshold value (th1), the estimation section is configured to estimate that the driver is in the attention function degraded state when the second index value (id2) falls below a predetermined second threshold value (th2), and in the case where the first index value (id1) falls below the predetermined first threshold value (th1), the estimation section is configured to estimate that the driver is not in the attention function degraded state when the second index value (id2) does not fall below the second threshold value (th2) . a first measurement section configured to measure a first index value (id1) correlated with an amount of an attention source allocated to top-down attention of the driver; a second measurement section configured to measure a second index value (id2) correlated with an amount of the attention source allocated to bottom-up attention of the driver; and an estimation section configured to estimate the driver state including an attention function degraded state of the driver on the basis of the first index value (id1) and the second index value (id2), wherein in the case where the first index value (id1) falls below a predetermined first threshold value (th1), the estimation section is configured to estimate that the driver is in the attention function degraded state when the second index value (id2) falls below a predetermined second threshold value (th2), and in the case where the first index value (id1) falls below the predetermined first threshold value (th1), the estimation section is configured to estimate that the driver is not in the attention function degraded state when the second index value (id2) does not fall below the second threshold value (th2) .
A fifth wheel control arrangement for an articulated vehicle , comprising a fifth wheel having a biased hinge joint and an actuator arranged to control a biasing force and/or a damping force of the biased hinge joint , characterized in that the control arrangement further comprises a control unit configured to automatically control the actuator in response to one or more input sensor signals associated with a current state of the articulated vehicle, to obtain a target wheel axle load (F1, F2, F3) of the articulated vehicle and/or to stabilize the articulated vehicle .
A handset, comprising a housing , a card tray , the card tray is configured to be inserted to or detached from the handset, wherein a pinhole is disposed on the housing, the card tray is detached from the handset after an ejector pin passes through the pinhole and a sealing kit and a force is applied on the ejector pin ; the sealing kit is inside the handset; an opening is disposed on the sealing kit ; when the ejector pin passes through the sealing kit after passing through the pinhole , the opening on the sealing kit is opened; and when the ejector pin is unplugged from the sealing kit , the opening on the sealing kit is closed for water proofing.
An additive manufacturing hybrid heater print nozzle having an upper and a lower portion , comprising: a high thermal mass heat sink located in the upper portion ; a delivery conduit; an extruder configured to extrude print material through the delivery conduit; a high thermal mass heater about the delivery conduit proximate to the extruder, wherein the high thermal mass heater is located in an upper region of the lower portion along the nozzle and below the high thermal mass heat sink for preventing creeping of liquefied print material upwards through the nozzle ; a low thermal mass heater about the delivery conduit distal from the extruder and proximate to an exit from the delivery conduit, wherein the low thermal mass heater is located in a lower region of the lower portion along the nozzle and below the high thermal mass nozzle portion , wherein the low thermal mass heater is adapted to passively cool the print material ; and a controller configured to execute at least a print build using the print material , and to control both the high thermal mass heater and the lower thermal mass heater , wherein the high thermal mass heater is controlled to provide substantial heat energy to a filament of print material within the nozzle and the low thermal mass heater is controlled to allow for dynamic changes in the temperature of the nozzle and the filament of print material within the nozzle . a high thermal mass heat sink located in the upper portion ; a delivery conduit; an extruder configured to extrude print material through the delivery conduit; a high thermal mass heater about the delivery conduit proximate to the extruder, wherein the high thermal mass heater is located in an upper region of the lower portion along the nozzle and below the high thermal mass heat sink for preventing creeping of liquefied print material upwards through the nozzle ; a low thermal mass heater about the delivery conduit distal from the extruder and proximate to an exit from the delivery conduit, wherein the low thermal mass heater is located in a lower region of the lower portion along the nozzle and below the high thermal mass nozzle portion , wherein the low thermal mass heater is adapted to passively cool the print material ; and a controller configured to execute at least a print build using the print material , and to control both the high thermal mass heater and the lower thermal mass heater , wherein the high thermal mass heater is controlled to provide substantial heat energy to a filament of print material within the nozzle and the low thermal mass heater is controlled to allow for dynamic changes in the temperature of the nozzle and the filament of print material within the nozzle .
A computer-implemented image processing method comprising a determination of an image processing function of each image of an image sequence by means of the following steps: (i) determining a sequence of estimates of the processing functions of at least some of the images ; (ii) determining the processing function of each image recursively over the sequence of images, on the basis of the sequence of estimates , so that the determination of a processing function of an image to be processed which is at least second in the image sequence is carried out on the basis: - of the sequence of estimates , and - of a processing function of an image preceding the image to be processed in the image sequence ; wherein the image processing function defines an image segmentation. (i) determining a sequence of estimates of the processing functions of at least some of the images ; (ii) determining the processing function of each image recursively over the sequence of images, on the basis of the sequence of estimates , so that the determination of a processing function of an image to be processed which is at least second in the image sequence is carried out on the basis: - of the sequence of estimates , and - of a processing function of an image preceding the image to be processed in the image sequence ; - of the sequence of estimates , and - of a processing function of an image preceding the image to be processed in the image sequence ;
Visualization apparatus , having an imaging optical unit for producing an observation image of an object region ; having a display device containing a display for visualizing an image having a piece of orientation information, which is superposed on the observation image of the object region ; having an image capturing device for capturing an image of the object region; and having a computational system that calculates image data containing the orientation information from an image of the object region that was captured with the image capturing device and transmits them to the display device ; wherein the imaging optical unit comprises a binocular tube for visualizing the object region with an optical observation beam path and a beam splitter that is arranged in the optical observation beam path , said beam splitter feeding the observation image of the object region to the image capturing device , and has a beam splitter that is arranged in the optical beam path and superposes the image displayed with the display device on the observation image of the object region and feeds it to the binocular tube , and wherein the computational system corrects with respect to the observation image at least one systematic error, caused by manufacturing, installation and adjustment tolerances of the display , of the image displayed with the display device during the calculation of the image data by way of setting, for the displayed image that is superposed on the observation image, at least one correction parameter from the parameter group magnification, azimuthal rotation and displacement that is ascertained from a comparison of the observation image of a reference object to a comparison object that is superposed on the observation image and visualized with the display device , characterized in that the imaging optical unit contains a magnification system having a settable magnification and the computational system has an input interface for inputting the at least one correction parameter and for inputting a display parameter for different magnifications, and a data memory that stores the display parameters that are input for different magnifications at the input interface for the image that is displayed with the display device , wherein the computational system takes the magnification of the magnification system and the correction parameters input for different magnifications into consideration when calculating the image data that are transmitted to the display device for the display of the image .
A spark plug comprising: an insulator having an axial hole formed in a direction of an axis (O-O) of the spark plug; a center electrode held in one end side of the axial hole ; a metal terminal held in the other end side of the axial hole ; an electrical connection part arranged to establish electrical connection between the center electrode and the metal terminal within the axial hole ; and a metal shell disposed around an outer circumference of the insulator and having a thread portion formed on at least a part of an outer circumferential surface thereof, wherein the electrical connection part includes: a resistor ; and a conductive seal layer provided between the resistor and the center electrode to seal and fix the insulator and the center electrode together; the spark plug being characterized in that , in a half or more of a region (L1) in which the seal layer is provided in the direction of the axis (O-O), the spark plug satisfies the following conditions: a /( a + b) × 100 ≥ 8.2 and a + b ≥ 2.80 in the case of M = 14 mm; a / (a + b) × 100 ≥ 8.3 and a + b ≥ 1.80 in the case of M = 12 mm; and a /( a + b ) × 100 ≥ 8.6 and a + b ≥ 1.75 in the case of M = 10 mm, where M represents a nominal diameter of the thread portion ; a represents a distance between the insulator and the metal shell ; and b represents a thickness of the insulator . an insulator having an axial hole formed in a direction of an axis (O-O) of the spark plug; a center electrode held in one end side of the axial hole ; a metal terminal held in the other end side of the axial hole ; an electrical connection part arranged to establish electrical connection between the center electrode and the metal terminal within the axial hole ; and a metal shell disposed around an outer circumference of the insulator and having a thread portion formed on at least a part of an outer circumferential surface thereof, wherein the electrical connection part includes: a resistor ; and a conductive seal layer provided between the resistor and the center electrode to seal and fix the insulator and the center electrode together; the spark plug being characterized in that , in a half or more of a region (L1) in which the seal layer is provided in the direction of the axis (O-O), the spark plug satisfies the following conditions: a /( a + b) × 100 ≥ 8.2 and a + b ≥ 2.80 in the case of M = 14 mm; a / (a + b) × 100 ≥ 8.3 and a + b ≥ 1.80 in the case of M = 12 mm; and a /( a + b ) × 100 ≥ 8.6 and a + b ≥ 1.75 in the case of M = 10 mm, where M represents a nominal diameter of the thread portion ; a represents a distance between the insulator and the metal shell ; and b represents a thickness of the insulator .
A cooking hob comprising at least one monitoring device , wherein: - the cooking hob includes at least one cooking zone (12; 28), - the monitoring device is connected to the cooking hob via at least one wired and/or wireless electrical signal connection, - the monitoring device includes at least one sensor system , - the monitoring device includes at least one elongated carrier (18; 24) for supporting the sensor system , - the carrier (18; 24) is moveable between a non-operating state and an operating state of the monitoring device , and - the sensor system is directed from above to at least one cooking zone (12; 28) in the operating state of the monitoring device , - characterized in that the sensor system is provided for detecting a change of the colour of the food stuff upon the cooking hob and - the sensor system due to the change of the colour of the food stuff recognises if the food is ready or has to be turned. - the cooking hob includes at least one cooking zone (12; 28), - the monitoring device is connected to the cooking hob via at least one wired and/or wireless electrical signal connection, - the monitoring device includes at least one sensor system , - the monitoring device includes at least one elongated carrier (18; 24) for supporting the sensor system , - the carrier (18; 24) is moveable between a non-operating state and an operating state of the monitoring device , and - the sensor system is directed from above to at least one cooking zone (12; 28) in the operating state of the monitoring device , - characterized in that the sensor system is provided for detecting a change of the colour of the food stuff upon the cooking hob and - the sensor system due to the change of the colour of the food stuff recognises if the food is ready or has to be turned.
A method of preparing a hydrophobic silica aerogel, the method comprising steps of: preparing a water glass dispersion comprising a water glass solution and an inorganic acid; adding the water glass dispersion and a surface modifier solution to a reactor and performing a reaction to prepare a hydrophobic silica wet gel, wherein the surface modifier comprises at least one selected from the group consisting of trimethylchlorosilane, hexamethyldisilazane, methyltrimethoxysilane, and trimethylethoxysilane; and drying the hydrophobic silica wet gel, wherein the method further comprises adding ammonium hydroxide during the reaction of step , wherein, after the entire amount of the surface modifier solution is added, the ammonium hydroxide is added when a pH in the reactor reaches 5 to 10, wherein the ammonium hydroxide is added in an amount such that a molar ratio of the ammonium hydroxide to a surface modifier in the surface modifier solution is in a range of 0.5 to 25, and wherein gelation and solvent substitution are simultaneously performed while the surface modification reaction is performed by reacting the water glass dispersion with the surface modifier solution. preparing a water glass dispersion comprising a water glass solution and an inorganic acid; adding the water glass dispersion and a surface modifier solution to a reactor and performing a reaction to prepare a hydrophobic silica wet gel, wherein the surface modifier comprises at least one selected from the group consisting of trimethylchlorosilane, hexamethyldisilazane, methyltrimethoxysilane, and trimethylethoxysilane; and drying the hydrophobic silica wet gel,
A unit for belling pipes (T) made of thermoplastic material of the PVC-O type comprising: - a forming pad for deforming into the shape of a bell (B) an end portion (E) of a pipe (T) made of thermoplastic material, said pad having a longitudinal central axis (X1) of symmetry and a region for housing an annular gasket (G) designed to be coupled, internally, to the pipe (T) made of thermoplastic material; - an annular contact element fitted slidably on said pad to move along the direction of said longitudinal central axis (X1), between an advanced position (P1) of contact of the gasket (G), and a withdrawn position (P2); - a second heating device , configured for heating from the outside said pipe (T) made of thermoplastic material fitted on the forming pad , in a predetermined zone of the pad at the end portion (E) of the pipe (T) made of thermoplastic material, the unit being characterised in that it comprises a first heating device , configured for heating the annular contact element to a predetermined temperature in such a way as to heat by contact an inner surface of the end portion (E) of the pipe (T) fitted on the annular contact element . - a forming pad for deforming into the shape of a bell (B) an end portion (E) of a pipe (T) made of thermoplastic material, said pad having a longitudinal central axis (X1) of symmetry and a region for housing an annular gasket (G) designed to be coupled, internally, to the pipe (T) made of thermoplastic material; - an annular contact element fitted slidably on said pad to move along the direction of said longitudinal central axis (X1), between an advanced position (P1) of contact of the gasket (G), and a withdrawn position (P2); - a second heating device , configured for heating from the outside said pipe (T) made of thermoplastic material fitted on the forming pad , in a predetermined zone of the pad at the end portion (E) of the pipe (T) made of thermoplastic material,
Composition comprising an oncolytic adenovirus for use in the treatment of retinoblastoma in the prevention, removal or reduction of metastases, secondary malignancies and/or trilateral retinoblastoma associated with retinoblastoma, characterised in that said oncolytic adenovirus comprises: - a sequence encoding a hyaluronidase enzyme inserted into its genome; and - replication machinery specific for tumour cells. - a sequence encoding a hyaluronidase enzyme inserted into its genome; and - replication machinery specific for tumour cells.