mhurhangee/patent-ind-claim-en huggingface dataset:
Drive mechanism (10; 177) for a medicament delivery device, which drive mechanism (10; 177) comprises an elongated plunger rod (12; 176), wherein the plunger rod comprises a number of discrete segments (14; 178), a proximally positioned segment (14 I 14 II , 14 III ; 178 I , 178 II , 178 III ) of which is arranged with a passage (17, 33, 63; 181, 197, 213) in its distal end and an adjacent, distally positioned, segment (14 II , 14 III , 52; 178 II , 178 III , 216) is arranged with a protrusion (24, 38, 58; 186, 200, 220) fitting into said passage (17, 33, 63; 181, 197, 213), which protrusion comprises release elements (28, 46, 68; 190, 208, 228) wherein the most proximal segment (14 I ) is arranged with an end surface intended to be in contact with a stopper in a medicament container, the drive mechanism further comprising interlocking elements (18, 20, 32, 34, 60, 62; 182, 184, 196, 198, 212, 214) arranged between adjacent segments and operably arranged to releasably lock adjacent segments, drive springs (30, 50 71; 194, 210, 230) operably arranged to act between adjacent segments, and the release elements (28, 46, 68; 190, 208, 228) operably arranged to act on said interlocking elements (18, 20, 32, 34, 60, 62; 182, 184, 196, 198, 212, 214) such that said segments (14; 178) are released in sequence.
A method of operation of a video decoding system comprising: receiving a video bitstream as a serial bitstream in which a low delay flag is positioned before a hypothetical reference decode (HRD) syntax ; extracting a video syntax from the video bitstream; extracting the low delay flag, a network abstraction layer (NAL) HRD parameters present flag , and a video coding layer (VCL) HRD parameters present flag from the video syntax; extracting elements of the HRD syntax from the video bitstream based on values of the low delay flag, the NAL HRD parameters present flag, and the VCL HRD parameters present flag, wherein the HRD syntax includes a coded picture buffer count, the value of the coded picture buffer count is set based on the low delay flag, and when the value of the low delay flag is 1 and either the NAL HRD parameters present flag or the VCL HRD parameters present flag is 1, then the coded picture buffer count is set to 0 to indicate operation in a low delay mode with only a single coded picture buffer; extracting a sub-layer from the video bitstream by selecting a sub-layer based on the video syntax having the HRD syntax and removing other sub-layers from the video bitstream; and forming a video stream based on the sub-layer for displaying on a device. receiving a video bitstream as a serial bitstream in which a low delay flag is positioned before a hypothetical reference decode (HRD) syntax ; extracting a video syntax from the video bitstream; extracting the low delay flag, a network abstraction layer (NAL) HRD parameters present flag , and a video coding layer (VCL) HRD parameters present flag from the video syntax; extracting elements of the HRD syntax from the video bitstream based on values of the low delay flag, the NAL HRD parameters present flag, and the VCL HRD parameters present flag, wherein the HRD syntax includes a coded picture buffer count, the value of the coded picture buffer count is set based on the low delay flag, and when the value of the low delay flag is 1 and either the NAL HRD parameters present flag or the VCL HRD parameters present flag is 1, then the coded picture buffer count is set to 0 to indicate operation in a low delay mode with only a single coded picture buffer; extracting a sub-layer from the video bitstream by selecting a sub-layer based on the video syntax having the HRD syntax and removing other sub-layers from the video bitstream; and forming a video stream based on the sub-layer for displaying on a device.
A display apparatus , comprising: a display panel including a curved portion (BA1, BA2) connected to a flat portion (FA); a buffer overlapping the flat portion (FA) and having a first thickness; and a curved buffer on a same layer as the buffer and overlapping the curved portion (BA1, BA2); characterized in that the curved buffer has a second thickness that is greater than the first thickness, and the display apparatus further comprises: a heat discharge layer facing the display panel , wherein the buffer is between the heat discharge layer and the display panel , and wherein the heat discharge layer overlaps the flat portion (FA) and does not overlap the curved portion (BA1, BA2). a display panel including a curved portion (BA1, BA2) connected to a flat portion (FA); a buffer overlapping the flat portion (FA) and having a first thickness; and a curved buffer on a same layer as the buffer and overlapping the curved portion (BA1, BA2);
A composition for use in treating cancer in a subject, the composition comprising chymotrypsinogen and trypsinogen, wherein the weight ratio of chymotrypsinogen : trypsinogen is equal to or greater than 2:1 but less than 4:1, and wherein the composition does not comprise amylase.
An analyte monitoring device , comprising: a first receiver for communicating with an on body unit, the on body unit comprising an in vivo positionable analyte sensor and a data processing unit ; a display ; a processor ; and memory operably coupled to the processor, wherein the memory includes instructions stored therein that, when executed by a processor, cause the processor to: receive sensor-use information indicative of at least one of a first use type of the on body unit or a second use type of the on body unit; identify at least one of a plurality of settings associated with the sensor-use information, wherein the plurality of settings comprises a first setting and a second setting ; configure the analyte monitoring device to operate with the identified setting ; and operate the analyte monitoring device with the first setting if the on body unit is the first use type, wherein the first setting prevents analyte values from being displayed, or operate the analyte monitoring device with the second setting if the on body unit is the second use type, wherein, in the second setting, analyte values are displayed. a first receiver for communicating with an on body unit, the on body unit comprising an in vivo positionable analyte sensor and a data processing unit ; a display ; a processor ; and memory operably coupled to the processor, wherein the memory includes instructions stored therein that, when executed by a processor, cause the processor to: receive sensor-use information indicative of at least one of a first use type of the on body unit or a second use type of the on body unit; identify at least one of a plurality of settings associated with the sensor-use information, wherein the plurality of settings comprises a first setting and a second setting ; configure the analyte monitoring device to operate with the identified setting ; and operate the analyte monitoring device with the first setting if the on body unit is the first use type, wherein the first setting prevents analyte values from being displayed, or receive sensor-use information indicative of at least one of a first use type of the on body unit or a second use type of the on body unit; identify at least one of a plurality of settings associated with the sensor-use information, wherein the plurality of settings comprises a first setting and a second setting ; configure the analyte monitoring device to operate with the identified setting ; and operate the analyte monitoring device with the first setting if the on body unit is the first use type, wherein the first setting prevents analyte values from being displayed, or operate the analyte monitoring device with the second setting if the on body unit is the second use type, wherein, in the second setting, analyte values are displayed.
Method for adjusting a predetermined ratio between handlebar angle (β) and steering angle (α) of a front wheel of a bicycle , wherein the method has the following method steps: - detecting out-of-the-saddle riding, and - adjusting the predefined ratio between handlebar angle (β) and steering angle (α) as a function of the detected out-of-the-saddle riding , by means of an actuator arranged on a handlebar of the bicycle . - detecting out-of-the-saddle riding, and - adjusting the predefined ratio between handlebar angle (β) and steering angle (α) as a function of the detected out-of-the-saddle riding , by means of an actuator arranged on a handlebar of the bicycle .
A method for adjusting the height of a trailer to the height of a motor vehicle with a fifth-wheel plate , wherein the trailer has a trailer chassis , at least one axle and a height adjustable suspension, having an actual inclination (α) of the trailer chassis relative to a chassis line , which runs in the direction of traffic and parallel to a road surface , having the following steps: a) Determining the actual inclination (α) of the trailer chassis relative to the chassis line , b) Comparison of the actual inclination (α) to a target inclination of the trailer chassis , c) Adjustment of the height adjustable suspension, until the actual inclination (α) of the target inclination, characterized in that at least signals of a sensor in the motor vehicle are evaluated to determine the actual inclination (a), wherein at least signals of a sensor are evaluated to determine the inclination of the fifth-wheel plate . a) Determining the actual inclination (α) of the trailer chassis relative to the chassis line , b) Comparison of the actual inclination (α) to a target inclination of the trailer chassis , c) Adjustment of the height adjustable suspension, until the actual inclination (α) of the target inclination,
An electric pulse generation system comprising: a memory ; a display ; a user input device ; a sample holder comprising a first electrode and a second electrode disposed on opposite sides of the sample holder , wherein the sample holder is configured to receive a sample container ; pulse generating circuitry configured to supply a pulse to the first electrode and the second electrode ; a capacitive element external to the sample holder and disposed in series between the pulse generating circuitry and the sample holder ; and a processor configured to execute instructions stored on the memory to control the pulse generating circuitry , wherein the pulse generating circuitry is configured to capacitively couple to the sample container , characterized in that : the pulse generating circuitry comprises the capacitive element and circuitry coupled to the first and second electrodes allowing the pulse to bypass the capacitive element ; and the processor is configured to receive an input from the user input device to control the pulse generating circuitry to either allow the pulse to bypass the capacitive element or route the pulse through the capacitive element . a memory ; a display ; a user input device ; a sample holder comprising a first electrode and a second electrode disposed on opposite sides of the sample holder , wherein the sample holder is configured to receive a sample container ; pulse generating circuitry configured to supply a pulse to the first electrode and the second electrode ; a capacitive element external to the sample holder and disposed in series between the pulse generating circuitry and the sample holder ; and a processor configured to execute instructions stored on the memory to control the pulse generating circuitry , wherein the pulse generating circuitry is configured to capacitively couple to the sample container , characterized in that : the pulse generating circuitry comprises the capacitive element and circuitry coupled to the first and second electrodes allowing the pulse to bypass the capacitive element ; and the processor is configured to receive an input from the user input device to control the pulse generating circuitry to either allow the pulse to bypass the capacitive element or route the pulse through the capacitive element . the pulse generating circuitry comprises the capacitive element and circuitry coupled to the first and second electrodes allowing the pulse to bypass the capacitive element ; and the processor is configured to receive an input from the user input device to control the pulse generating circuitry to either allow the pulse to bypass the capacitive element or route the pulse through the capacitive element .
A coating composition comprising: water; a plurality of flakes having a maximum dimension less than 0.05 inches ; a plurality of inorganic fibers; a thixotropic suspending agent that is insoluble in water and includes magnesium silicate or sepiolite clay; and a resin. water; a plurality of flakes having a maximum dimension less than 0.05 inches ; a plurality of inorganic fibers; a thixotropic suspending agent that is insoluble in water and includes magnesium silicate or sepiolite clay; and a resin.
Chain with several chain links connected to each other, each of which are made of plastic threads , wherein each chain link is configured as at least one endlessly laid ring of twisted rope on the basis of the plastic threads , and wherein the twisted rope essentially comprises a continuous rope of the plastic threads , helically laid around a core, characterised in that the rope is in the form of a round-woven rope , wherein the round cross-sectional shape of the rope is produced in that at this point a tubular round woven fabric and, possibly, an insert are used. each chain link is configured as at least one endlessly laid ring of twisted rope on the basis of the plastic threads , and wherein the twisted rope essentially comprises a continuous rope of the plastic threads , helically laid around a core, characterised in that the rope is in the form of a round-woven rope , wherein the round cross-sectional shape of the rope is produced in that at this point a tubular round woven fabric and, possibly, an insert are used.
Device for automatic absorption means positioning in X-ray image acquisition, comprising a processing unit; wherein the processing unit is adapted to i) receive image data of images of a first sequence of X-ray images of an object ; and to ii) determine optimal position for X-ray absorption means for each of the images of the first sequence of images; and to iii) associate images of a second sequence of X-ray images with corresponding images of the first sequence of X-ray images by establishing a correspondence for the first sequence and the second sequence based on association data including angulation data, system information and vascular information; and to iv) select the determined optimal position for X-ray absorption means of the associated corresponding images of the first sequence of X-ray images for an acquisition of the second sequence of X-ray images.
A self-contained drive module for attachment to a submersible autonomous vehicle , the drive module comprising: a propulsion element configured to engage and rotate against a surface; a first motor configured to drive the propulsion element , a housing configured to be removably coupled to the exterior of the submersible autonomous vehicle , characterized in that the self-contained drive module further comprises a second motor configured to drive an internal system of the submersible autonomous vehicle ; a controller configured to cause the first motor to drive the propulsion element and the second motor to drive the internal system; and in that the first motor , the second motor , and the controller are disposed substantially within the housing . a propulsion element configured to engage and rotate against a surface; a first motor configured to drive the propulsion element , a housing configured to be removably coupled to the exterior of the submersible autonomous vehicle , characterized in that the self-contained drive module further comprises a second motor configured to drive an internal system of the submersible autonomous vehicle ; a controller configured to cause the first motor to drive the propulsion element and the second motor to drive the internal system; and in that the first motor , the second motor , and the controller are disposed substantially within the housing . a second motor configured to drive an internal system of the submersible autonomous vehicle ; a controller configured to cause the first motor to drive the propulsion element and the second motor to drive the internal system; and in that the first motor , the second motor , and the controller are disposed substantially within the housing .
A system for adaptive user interfaces, comprising: a user interface output component configured to output a first user interface to at least one output device ; an input device configured to receive input user actions from a user interacting with the first user interface; an input tracking component configured to register user actions received from the input device ; a user experience learning component configured to assign one or more user groupings based on user interface interaction history and registered input actions, wherein the user experience learning component uses deep learning, machine learning or artificial intelligence with input factors including current usage factors, historical usage factors and a user profile; a user experience determination component configured to determine a user experience level, wherein the user experience level is determined from current session user interaction history , retrieved past session user interaction history , and user profile information ; a user interface adaptive component configured to generate an adapted user interface based on the user experience level and the assigned grouping; wherein the user interface output component is configured to output the adapted user interface. a user interface output component configured to output a first user interface to at least one output device ; an input device configured to receive input user actions from a user interacting with the first user interface; an input tracking component configured to register user actions received from the input device ; a user experience learning component configured to assign one or more user groupings based on user interface interaction history and registered input actions, wherein the user experience learning component uses deep learning, machine learning or artificial intelligence with input factors including current usage factors, historical usage factors and a user profile; a user experience determination component configured to determine a user experience level, wherein the user experience level is determined from current session user interaction history , retrieved past session user interaction history , and user profile information ; a user interface adaptive component configured to generate an adapted user interface based on the user experience level and the assigned grouping; wherein the user interface output component is configured to output the adapted user interface.
A lining board , which comprises lining tiles secured to each other with adhesive mass , which lining tiles have a front surface , a back surface as well as side surfaces between the front surface and the back surface , and at least one lining tile has in at least one side surface at least one recess adapted to extend to the back surface of the lining tile , characterised in that the lining board comprises a back-plate and the at least one recess in the lining tile has been filled with adhesive mass securing the lining tiles to the back-plate and to each other with adhesive mass , and the back-plate comprises grippers which are directed towards the back surface of the lining tiles and embedded in the adhesive mass that fills the at least one recess to secure the tiling formed by the lining tiles to the back-plate through the adhesive mass and the grippers embedded in the adhesive mass , and that the back-plate comprises hangers which are oriented away from the back surface of the lining tiles to install the lining board on a wall.
Abatement filter to filter the aerosol produced in a leather treatment and/or finishing chamber, said abatement filter comprising a container , through which the aerosol to be filtered is passed, said container containing: - at least one suction device configured to suck the aerosol generated in said leather treatment and/or finishing chamber, - at least one liquid filter configured to spray at least one water-based liquid on said aerosol in order to at least partially precipitate the particulate present in suspension in the aerosol itself, - a dry filtering apparatus arranged downstream of said liquid filter according to the direction of flow of said aerosol , comprising at least one laminar filter element , characterized in that said at least one element filter is movable, in a mechanized way, between a first operating position suitable for filtering said aerosol , wherein said first position is interfering with the path of said aerosol through said container , and a second non operating position not suitable for filtering said aerosol , wherein said second position is not interfering with said path. - at least one suction device configured to suck the aerosol generated in said leather treatment and/or finishing chamber, - at least one liquid filter configured to spray at least one water-based liquid on said aerosol in order to at least partially precipitate the particulate present in suspension in the aerosol itself, - a dry filtering apparatus arranged downstream of said liquid filter according to the direction of flow of said aerosol , comprising at least one laminar filter element ,