mhurhangee/patent-ind-claim-en huggingface dataset:
A stand for a puncturing device , the stand comprising: - a base plate adapted to be positioned on a patient's body, - an arm pivotably connected to the base plate , - a guide connected to the arm and having a longitudinal axis (X-X), the guide further comprising a groove extending along the longitudinal axis (X-X) and configured for engaging a portion of the puncturing device according to a translation in a direction perpendicular to the longitudinal axis (X-X) in order to removably receive the puncturing device , wherein the arm is lockable to the base plate in order to maintain the puncturing device in a determined orientation relative to the base plate , and - a first positioning mechanism , wherein: ∘ the pivoting of the arm and the base plate relative to one another is set by the first positioning mechanism , and ∘ the arm is lockable to the base plate by the first positioning mechanism , characterized in that the first positioning mechanism comprises an arcuate rack connected to the base plate , the arcuate rack being adapted to penetrate into an opening made through the arm while the arm is pivoted relative to the base plate in order to set the pivoting of the arm and the base plate relative to one another. - a base plate adapted to be positioned on a patient's body, - an arm pivotably connected to the base plate , - a guide connected to the arm and having a longitudinal axis (X-X), the guide further comprising a groove extending along the longitudinal axis (X-X) and configured for engaging a portion of the puncturing device according to a translation in a direction perpendicular to the longitudinal axis (X-X) in order to removably receive the puncturing device , wherein the arm is lockable to the base plate in order to maintain the puncturing device in a determined orientation relative to the base plate , and - a first positioning mechanism , wherein: ∘ the pivoting of the arm and the base plate relative to one another is set by the first positioning mechanism , and ∘ the arm is lockable to the base plate by the first positioning mechanism , characterized in that the first positioning mechanism comprises an arcuate rack connected to the base plate , the arcuate rack being adapted to penetrate into an opening made through the arm while the arm is pivoted relative to the base plate in order to set the pivoting of the arm and the base plate relative to one another. ∘ the pivoting of the arm and the base plate relative to one another is set by the first positioning mechanism , and ∘ the arm is lockable to the base plate by the first positioning mechanism ,
A method for tensioning a subsea anchor line comprising: providing an in-line mooring connector in an anchor line between a first lower portion of the anchor line and a second upper portion of the anchor line, wherein said second portion is comprised of chain, said in-line mooring connector comprising a chain stopper and having means for attaching a removable chain jack; attaching a removable chain jack (230; 330; 430; 530) to the in-line mooring connector using a subsea remotely operated vehicle controlled by a first umbilical line from a surface vessel; moving the upper portion of the anchor line relative to the lower portion of the anchor line and the mooring connector by actuating the removable chain jack via a second umbilical line from the surface vessel ; locking the upper portion of the anchor line to the in-line mooring connector; detaching the removable chain jack from the in-line mooring connector using the remotely operated vehicle controlled by the first umbilical line; and, recovering the removable chain jack at the surface vessel. providing an in-line mooring connector in an anchor line between a first lower portion of the anchor line and a second upper portion of the anchor line, wherein said second portion is comprised of chain, said in-line mooring connector comprising a chain stopper and having means for attaching a removable chain jack; attaching a removable chain jack (230; 330; 430; 530) to the in-line mooring connector using a subsea remotely operated vehicle controlled by a first umbilical line from a surface vessel; moving the upper portion of the anchor line relative to the lower portion of the anchor line and the mooring connector by actuating the removable chain jack via a second umbilical line from the surface vessel ; locking the upper portion of the anchor line to the in-line mooring connector; detaching the removable chain jack from the in-line mooring connector using the remotely operated vehicle controlled by the first umbilical line; and, recovering the removable chain jack at the surface vessel.
A method performed by a computing device, the method comprising: determining initial configuration settings including information about available encoders and at least one user device ; identifying a first media content and a subsequent second media content; determining a duration of a projected and/or estimated ending delay comprising time periods associated with receipt of and decoding of one or more ending frames of the first media content, that has been encoded using at least one first encoding parameter; determining a duration of a projected and/or estimated startup delay comprising time periods associated with receipt of and decoding of one or more frames of the second media content, that has been encoded using at least one second encoding parameter; determining a first time difference between the durations of the startup delay and the ending delay; comparing the first time difference to a threshold indicating a maximum acceptable delay time; if the first time difference exceeds the threshold, determining whether there is a difference in a format of the first media content and a format of the second media content; if there is a difference in format, selecting at least one new encoding parameter for at least the first media content based on the comparison, such that a projected difference in startup delay and ending delay is less than a maximum acceptable delay time; causing the encoder to encode , using the at least one new encoding parameter, at least a portion of the first media content. determining initial configuration settings including information about available encoders and at least one user device ; identifying a first media content and a subsequent second media content; determining a duration of a projected and/or estimated ending delay comprising time periods associated with receipt of and decoding of one or more ending frames of the first media content, that has been encoded using at least one first encoding parameter; determining a duration of a projected and/or estimated startup delay comprising time periods associated with receipt of and decoding of one or more frames of the second media content, that has been encoded using at least one second encoding parameter; determining a first time difference between the durations of the startup delay and the ending delay; comparing the first time difference to a threshold indicating a maximum acceptable delay time; if the first time difference exceeds the threshold, determining whether there is a difference in a format of the first media content and a format of the second media content; if there is a difference in format, selecting at least one new encoding parameter for at least the first media content based on the comparison, such that a projected difference in startup delay and ending delay is less than a maximum acceptable delay time; causing the encoder to encode , using the at least one new encoding parameter, at least a portion of the first media content.
A forage harvester for chopping crop material on a working field including - at least one conveyor member for conveying cut crop material in the direction of a chopping member , - at least one chopping member for chopping the cut crop material , and - at least one ejection member for ejection of chopped crop material , wherein the forage harvester further has at least two track-laying units arranged at mutually opposite ends of a front axle of the forage harvester , the track-laying units each including - two main wheels disposed in succession in the longitudinal direction of the forage harvester and in mutually opposite relationship, - at least one auxiliary wheel arranged between the main wheels , and - at least one track passing around the main wheels , wherein the auxiliary wheel co-operates with a lower portion of the track so that forces to be transmitted into a ground by way of the respective track-laying unit are transmitted at least proportionately by means of the auxiliary wheel , characterised by two respective lift-off members which are arranged on the track-laying units and by means of which at least the front one of the two main wheels of the respective track-laying unit can be transferred starting from a neutral position into a lifted position, wherein the front main wheel when in its neutral position is suitable for transmitting forces of the forage harvester on to the working field by way of the track and when in its lifted position is lifted off the working field in such a way that a contact surface of the track , that is in contact with the surface of the working field , is reduced in comparison with the main wheel being in its neutral position, and by at least one control device so adapted that lifting of the front main wheel is triggered by means of the control device automatically in dependence on a steering angle of a steering wheel of the forage harvester . - at least one conveyor member for conveying cut crop material in the direction of a chopping member , - at least one chopping member for chopping the cut crop material , and - at least one ejection member for ejection of chopped crop material , - two main wheels disposed in succession in the longitudinal direction of the forage harvester and in mutually opposite relationship, - at least one auxiliary wheel arranged between the main wheels , and - at least one track passing around the main wheels ,
A proteinaceous heterodimer comprising a first member and a second member different from said first member, wherein: (a) said first member comprises a light chain complexed with a heavy chain to form a targeting moiety exhibiting binding specificity to a tumor antigen, wherein the said heavy chain comprises a first human IgG1 Fc region which comprises amino acid substitutions T366W and K409A, said amino acid positions being determined according to the EU index of the KABAT; (b) said second member comprises a polypeptide comprising an immunoregulator which is a cytokine fused to a second human IgG1 Fc region which comprises amino acid substitutions T366S, L368G, Y407A and F405K, said amino acid positions being determined according to the EU index of the KABAT; and (c) said first member associates with said second member to form said heterodimer through complexation of said first Fc region with said second Fc region. (a) said first member comprises a light chain complexed with a heavy chain to form a targeting moiety exhibiting binding specificity to a tumor antigen, wherein the said heavy chain comprises a first human IgG1 Fc region which comprises amino acid substitutions T366W and K409A, said amino acid positions being determined according to the EU index of the KABAT; (b) said second member comprises a polypeptide comprising an immunoregulator which is a cytokine fused to a second human IgG1 Fc region which comprises amino acid substitutions T366S, L368G, Y407A and F405K, said amino acid positions being determined according to the EU index of the KABAT; and (c) said first member associates with said second member to form said heterodimer through complexation of said first Fc region with said second Fc region.
Method for analyzing at least one driver assistance system A, comprising the following steps: - checking whether at least one driver assistance system A is activated; - detecting at least one vehicle parameter which is suitable for characterizing an operating state of a vehicle, and/or at least one environment parameter which is suitable for characterizing the environment of the vehicle; - determining at least one driving situation characteristic value characterizing a driving situation of the vehicle, based at least on the at least one vehicle parameter and/or the at least one environment parameter; - determining at least one control intervention characteristic value which characterizes the activity of the at least one driver assistance system A, wherein the activity is derived from the at least one detected vehicle parameter and/or the at least one detected environment parameter or is read out via an interface to the driver assistance system A or is determined by monitoring a variable controlled by the driver assistance system A ; and - determining a correction value, which depends on the at least one control intervention parameter and the at least one driving situation characteristic value, based on the at least one vehicle parameter and/or the at least one environment parameter. - checking whether at least one driver assistance system A is activated; - detecting at least one vehicle parameter which is suitable for characterizing an operating state of a vehicle, and/or at least one environment parameter which is suitable for characterizing the environment of the vehicle; - determining at least one driving situation characteristic value characterizing a driving situation of the vehicle, based at least on the at least one vehicle parameter and/or the at least one environment parameter; - determining at least one control intervention characteristic value which characterizes the activity of the at least one driver assistance system A, wherein the activity is derived from the at least one detected vehicle parameter and/or the at least one detected environment parameter or is read out via an interface to the driver assistance system A or is determined by monitoring a variable controlled by the driver assistance system A ; and - determining a correction value, which depends on the at least one control intervention parameter and the at least one driving situation characteristic value, based on the at least one vehicle parameter and/or the at least one environment parameter.
A self-propelled agricultural machine for harvesting by uprooting plants with fibrous stems, in particular flax plants, including at least: - a chassis mounted on wheels , - a control cabin , - an engine , and, according to the direction of advance (F) of the machine when used in a field, - uprooting means with belts for uprooting by pinching the stems of the plants as the agricultural machine advances in the field, - conveying means with belts for transporting the stems of the uprooted plants and making them switch from a vertical uprooting position to a horizontal transport position by pivoting by 90°, said conveying means being inclined upwards and supporting the uprooting means , - spreading means including belts and a spreading table for laying the stems of the plants on the ground behind the agricultural machine , a recovery area forming a void being defined between the end of the conveying means and the beginning of the spreading means , and furthermore, intermediate transport means located at least partially in the recovery area in order to accompany the stems of the plants after pivoting thereof from the conveying means towards the spreading means , characterised in that - the conveying means and the spreading means form an one-piece set , so that the recovery area has a constant dimension regardless of the height of the uprooting means with respect to the ground. - a chassis mounted on wheels , - a control cabin , - an engine , and, according to the direction of advance (F) of the machine when used in a field, - uprooting means with belts for uprooting by pinching the stems of the plants as the agricultural machine advances in the field, - conveying means with belts for transporting the stems of the uprooted plants and making them switch from a vertical uprooting position to a horizontal transport position by pivoting by 90°, said conveying means being inclined upwards and supporting the uprooting means , - spreading means including belts and a spreading table for laying the stems of the plants on the ground behind the agricultural machine , a recovery area forming a void being defined between the end of the conveying means and the beginning of the spreading means , and furthermore, intermediate transport means located at least partially in the recovery area in order to accompany the stems of the plants after pivoting thereof from the conveying means towards the spreading means , characterised in that - the conveying means and the spreading means form an one-piece set , so that the recovery area has a constant dimension regardless of the height of the uprooting means with respect to the ground.
A method for managing operation of a conformal phased-array antenna , the method comprising: providing structural data (SD) about the antenna to be operated, said structural data comprising data (GD) indicative of a geometry of a curved radiating surface defined by an arrangement of N antenna elements of the phased array and data indicative of said arrangement of N antenna elements; utilizing input data indicative of a selected direction (DD) of antenna operation and processing said structural data (SD) about the antenna, said processing comprising: determining a selected set of M antenna elements out of the N antenna elements defining a desired radiation pattern of the antenna for said selected direction, wherein M ≤ N and wherein the selected set of M antenna elements are antenna elements which provide sufficient gain in the selected direction; determining beam forming data for said selected set of M antenna elements, the beam forming data comprising correction data for amplitude, phase and polarization of radiation for each of said M antenna elements, corresponding to coherent addition of radiation components of said M antenna elements in either transmitting or receiving modes of the antenna operation; and determining operational data indicative of said correction data for operation of each antenna element of said M antenna elements, to thereby provide phase and polarization pattern with maximized coherent addition corresponding to the desired radiation pattern of the set of M antenna elements. providing structural data (SD) about the antenna to be operated, said structural data comprising data (GD) indicative of a geometry of a curved radiating surface defined by an arrangement of N antenna elements of the phased array and data indicative of said arrangement of N antenna elements; utilizing input data indicative of a selected direction (DD) of antenna operation and processing said structural data (SD) about the antenna, said processing comprising: determining a selected set of M antenna elements out of the N antenna elements defining a desired radiation pattern of the antenna for said selected direction, wherein M ≤ N and wherein the selected set of M antenna elements are antenna elements which provide sufficient gain in the selected direction; determining beam forming data for said selected set of M antenna elements, the beam forming data comprising correction data for amplitude, phase and polarization of radiation for each of said M antenna elements, corresponding to coherent addition of radiation components of said M antenna elements in either transmitting or receiving modes of the antenna operation; and determining operational data indicative of said correction data for operation of each antenna element of said M antenna elements, to thereby provide phase and polarization pattern with maximized coherent addition corresponding to the desired radiation pattern of the set of M antenna elements.
A catalyst system comprising i) a 2-[(phosphinyl)aminyl] cyclic imine transition metal compound complex and ii) an organoaluminum compound, wherein the 2-[(phosphinyl)aminyl] cyclic imine transition metal compound complex has the structure: wherein: R 1 and R 2 are each independently a C 1 to C 20 organyl group consisting essentially of inert functional groups, R 3 is hydrogen or a C 1 to C 20 organyl group, L is -(CR'R") m - where each R' and R" independently is a hydrogen or a C 1 to C 10 organyl group consisting essentially of inert functional groups and m is 1, 2, or 3, R 11 is hydrogen or a C 1 to C 20 organyl group consisting essentially of inert functional groups, R 12 , R 13 , R 14 , R 21 , R 22 , R 23 , and R 24 are each independently hydrogen or a C 1 to C 20 organyl group consisting essentially of inert functional groups, optionally R 11 and R 13 or R 14 are joined to form a ring or ring system, and MX p represents a transition metal compound where M is chromium, X is a monoanion, and p ranges from 2 to 6. R 1 and R 2 are each independently a C 1 to C 20 organyl group consisting essentially of inert functional groups, R 3 is hydrogen or a C 1 to C 20 organyl group, L is -(CR'R") m - where each R' and R" independently is a hydrogen or a C 1 to C 10 organyl group consisting essentially of inert functional groups and m is 1, 2, or 3, R 11 is hydrogen or a C 1 to C 20 organyl group consisting essentially of inert functional groups, R 12 , R 13 , R 14 , R 21 , R 22 , R 23 , and R 24 are each independently hydrogen or a C 1 to C 20 organyl group consisting essentially of inert functional groups, optionally R 11 and R 13 or R 14 are joined to form a ring or ring system, and MX p represents a transition metal compound where M is chromium, X is a monoanion, and p ranges from 2 to 6.
An aircraft turbine engine, comprising at least one tubular element , such as a rotor shaft, and at least one rotor wheel extending around said tubular element and comprising a disk carrying at the external periphery of same, an annular row of blades, said disk extending at a radial distance h from said tubular element in such a way as to define an annular flow space for a cooling gas stream (Fr) during operation, said tubular element comprising at least one annular wall extending radially outwards and configured to divert said gas stream (Fr) in order for it to pass substantially radially between the disk and said annular wall ; said disk comprising a central bulb comprising a substantially planar transverse wall extending opposite said annular wall up to a radial distance H2 from the tubular element , characterized in that the radial extension H of the annular wall being substantially equal to H2, and in that said annular space between the disk and the tubular element has a radial dimension h and in that said annular wall is located at an axial distance J from said disk which is less than h.