mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a zeolitic material having an MWW framework structure and comprising boron and titanium, the process comprising (i) providing an aqueous synthesis mixture comprising a silica source, a boron source, a titanium source, and an MWW templating agent, at a temperature of the aqueous synthesis mixture of at most 50 °C; (ii) heating the aqueous synthesis mixture provided in (i) from the temperature of at most 50 °C to a temperature in the range of from 160 to 190 °C within a time period of at most 24 h; (iii) subjecting the synthesis mixture obtained from the heating according to (ii) to hydrothermal synthesis conditions under autogenous pressure in a closed system at a temperature in the range of from 160 to 190 °C, obtaining, in its mother liquor, a precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium; (iv) separating the precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium from its mother liquor; (v) calcining the separated precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium obtained from the separating according to (iv), obtaining the zeolitic material having an MWW framework structure and comprising boron and titanium, wherein neither prior to nor during (iv), the precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium is treated with an aqueous solution having a pH of at most 6, as determined by a pH-sensitive glass electrode. (i) providing an aqueous synthesis mixture comprising a silica source, a boron source, a titanium source, and an MWW templating agent, at a temperature of the aqueous synthesis mixture of at most 50 °C; (ii) heating the aqueous synthesis mixture provided in (i) from the temperature of at most 50 °C to a temperature in the range of from 160 to 190 °C within a time period of at most 24 h; (iii) subjecting the synthesis mixture obtained from the heating according to (ii) to hydrothermal synthesis conditions under autogenous pressure in a closed system at a temperature in the range of from 160 to 190 °C, obtaining, in its mother liquor, a precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium; (iv) separating the precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium from its mother liquor; (v) calcining the separated precursor of the zeolitic material having an MWW framework structure and comprising boron and titanium obtained from the separating according to (iv), obtaining the zeolitic material having an MWW framework structure and comprising boron and titanium,
A method for operating an IP multimedia subsystem, IMS, of a communication network, wherein - a stateless application server, AS, of an IMS of a communication network receives a communication request from a terminal device relayed by a communication network entity of the IMS; - the stateless AS provides the terminal device with a requested communication connection and increases a current value of a central concurrent calls counter associated with the terminal device and stored by a database of the communication network when the current value of the central concurrent calls counter is smaller than a maximum number of simultaneous communications allowed for the terminal device by the communication network; - the stateless AS provides the terminal device with the requested communication connection when the current value of the central concurrent calls counter equals the defined maximum number and another network entity of the IMS having previously relayed a communication connection for the terminal device, upon an alive request of the stateless AS, confirms a termination of the previously relayed communication connection. - a stateless application server, AS, of an IMS of a communication network receives a communication request from a terminal device relayed by a communication network entity of the IMS; - the stateless AS provides the terminal device with a requested communication connection and increases a current value of a central concurrent calls counter associated with the terminal device and stored by a database of the communication network when the current value of the central concurrent calls counter is smaller than a maximum number of simultaneous communications allowed for the terminal device by the communication network; - the stateless AS provides the terminal device with the requested communication connection when the current value of the central concurrent calls counter equals the defined maximum number and another network entity of the IMS having previously relayed a communication connection for the terminal device, upon an alive request of the stateless AS, confirms a termination of the previously relayed communication connection.
A control system for controlling a shading device according to the time of day for a room with at least one window, wherein through the controlling the shading device can be brought from a first position, in which the shading device is in a state, in which it does not at least substantially shade the window, to a second position, in which the shading device at least partially shades the window, wherein potential sunshine periods are determined, in which the sun is positioned in such a way relative to the window, that the sun can actually shine on the window as a result of said constellation, and the potential sunshine periods are taken into consideration for controlling purposes, characterized in that in addition at least one shady period is defined in advance, in which an object is located between the sun and the window, so that the window cannot be shined on directly by the sun, wherein in the shady period no shading is desired and/or required, wherein the at least one shady period overlaps at least to some extent with the potential sunshine periods, and wherein the control system is designed to also take into consideration the shady period for controlling purposes.
A method of reducing CD errors by compensating for deviations from a nominal value in distance between adjacent exposure beams (101a, 101b, 101c) in a pattern generator, said pattern generator is using a plurality of exposure beams for patterning a work piece covered at least partly with a layer sensitive to electromagnetic radiation, comprising the actions of: - determining a distance between two adjacent exposure beams of said plurality of exposure beams (101a, 101b, 101c), - providing writing schemes defining at least an order of exposing exposure beams of said plurality of exposure beams (101a, 101b, 101c) on the workpiece (10, 150), wherein said order of exposing exposure beams of said plurality of exposure beams on the workpiece (10, 150) in turn defines the order of scan lines on the workpiece (10, 150), - adjusting the dose of at least one of said plurality of exposure beams (101a, 101b, 101c), said adjustment of the dose is based on a deviation from a nominal distance between said two adjacent exposure beams of said plurality of exposure beams and said writing schemes provided, wherein different writing schemes result in different adjustments of the dose of at least one of said plurality of exposure beams. - determining a distance between two adjacent exposure beams of said plurality of exposure beams (101a, 101b, 101c), - providing writing schemes defining at least an order of exposing exposure beams of said plurality of exposure beams (101a, 101b, 101c) on the workpiece (10, 150), wherein said order of exposing exposure beams of said plurality of exposure beams on the workpiece (10, 150) in turn defines the order of scan lines on the workpiece (10, 150), - adjusting the dose of at least one of said plurality of exposure beams (101a, 101b, 101c), said adjustment of the dose is based on a deviation from a nominal distance between said two adjacent exposure beams of said plurality of exposure beams and said writing schemes provided, wherein different writing schemes result in different adjustments of the dose of at least one of said plurality of exposure beams.
Press for compacting waste material in particular urban solids, comprising a compaction tunnel in communication with a hopper through which said waste material to be compacted is received, pressing means configured to translate within a structure of said tunnel, which are configured to compress the waste material against an abutment element and to form a bale, said abutment element preferably located at a first end of the structure and movable in vertical direction to define an opening through which the pressing means transfer said bale onto receiving means, characterized in that the press comprises at least one anti-crushing apparatus extending away from the first end, thus defining a safety area in front of the opening which is not accessible to the receiving means to avoid the crushing of people possibly interposed between the press and the receiving means, the anti-crushing apparatus comprises: - at least one obstructing element connected to the press via at least one arm, in proximity to said first end of the structure; - at least one actuator adapted to move the at least one arm so as to move the obstructing element between the safety position and the clearance position and vice versa. - at least one obstructing element connected to the press via at least one arm, in proximity to said first end of the structure; - at least one actuator adapted to move the at least one arm so as to move the obstructing element between the safety position and the clearance position and vice versa.
An ophthalmic suspension comprising an ophthalmic active ingredient suspended in a formulation vehicle, wherein the ophthalmic active ingredient is present as particles that have D v90 < 5 μm and D v50 < 1 μm, and the formulation vehicle comprises a suspending agent and a non-ionic cellulose derivative, wherein the suspending agent comprises a carboxyvinyl polymer.
A communication server device (120A, 1010) comprising: an agent interface configured for a human agent to communicate between the agent interface and a remote client (110A-C); enhancement logic configured to receive a communication from the remote client (110A-C) via a first communication channel and to execute application logic on the remote client, the application logic being configured to open a second communication channel between the remote client and the server device (120A, 1010) using an identifier of the remote client, the second communication channel having an enhanced communication functionality relative to the first communication channel; account identification logic configured to associate the identifier of the remote client (110A-C) with an account of a user of the remote client; and a processor configured to execute at least the enhancement logic, wherein the enhancement logic is configured to download the application logic to the remote client (110A-C). an agent interface configured for a human agent to communicate between the agent interface and a remote client (110A-C); enhancement logic configured to receive a communication from the remote client (110A-C) via a first communication channel and to execute application logic on the remote client, the application logic being configured to open a second communication channel between the remote client and the server device (120A, 1010) using an identifier of the remote client, the second communication channel having an enhanced communication functionality relative to the first communication channel; account identification logic configured to associate the identifier of the remote client (110A-C) with an account of a user of the remote client; and a processor configured to execute at least the enhancement logic, wherein the enhancement logic is configured to download the application logic to the remote client (110A-C).
Method for determining a safety zone for a first robot, which carries out operations along a specified trajectory, wherein a safety zone for a collision-free operation is determined by the following method steps: dividing the specified trajectory into a plurality of subtraj ectories (1 1T, 1 2T,...); determining a plurality of fine-grained envelope cuboids (21 1T, 21 2T,...,) around extreme points of each subtraj ectory (1 1T, 1 2T,...); determining a number of optimised envelope cuboids (22 1, 22 2,...) from an enlargement of individual fine-grained envelope cuboids (21 1T, 21 2T,...,) in relation to the volume occupied by the enlarged fine-grained envelope cuboids, wherein the optimised envelope cuboids (22 1, 22 2,...) determined in this way form the safety zone for the trajectory. dividing the specified trajectory into a plurality of subtraj ectories (1 1T, 1 2T,...); determining a plurality of fine-grained envelope cuboids (21 1T, 21 2T,...,) around extreme points of each subtraj ectory (1 1T, 1 2T,...); determining a number of optimised envelope cuboids (22 1, 22 2,...) from an enlargement of individual fine-grained envelope cuboids (21 1T, 21 2T,...,) in relation to the volume occupied by the enlarged fine-grained envelope cuboids, wherein the optimised envelope cuboids (22 1, 22 2,...) determined in this way form the safety zone for the trajectory.
A high pressure polymerization process to form an ethylene-based interpolymer, the process comprising the steps of: A. Injecting a first feed comprising a chain transfer agent system (CTA system) and ethylene into a first autoclave reactor zone operating at polymerization conditions to produce a first zone reaction product, the CTA system of the first reactor zone having a transfer activity Z1; and B. Transferring at least part of the first zone reaction product to a second autoclave reactor zone and operating at polymerization conditions, and freshly injecting a feed comprising a CTA system and ethylene into the second reactor zone to produce a second zone reaction product, with the proviso that the CTA system of the second reactor zone has a transfer activity of Z2; and with the proviso that the ratio of Z1:Z2 is greater than 1; and wherein at least one comonomer is injected into the polymerization process at one or more of the following locations: at a suction to a hyper compressor, at a hyper compressor discharge, or directly into a autoclave reactor at one or more zones, and wherein the at least one comonomer comprises at least one carboxylic acid group or an anhydride group, and wherein, if a CTA is a saturated hydrocarbon, then it comprises at least 6 carbon atoms. A. Injecting a first feed comprising a chain transfer agent system (CTA system) and ethylene into a first autoclave reactor zone operating at polymerization conditions to produce a first zone reaction product, the CTA system of the first reactor zone having a transfer activity Z1; and B. Transferring at least part of the first zone reaction product to a second autoclave reactor zone and operating at polymerization conditions, and freshly injecting a feed comprising a CTA system and ethylene into the second reactor zone to produce a second zone reaction product, with the proviso that the CTA system of the second reactor zone has a transfer activity of Z2; and
A method for the generating grinding of a gear wheel workpiece using a dressable worm grinding wheel, wherein, during the generating grinding, the worm grinding wheel is rotationally driven about a tool axis of rotation and the gear wheel workpiece about a workpiece axis of rotation, and relative movements are executed between the worm grinding wheel and the gear wheel workpiece, and wherein after the execution of a dressing procedure of the worm grinding wheel, which is carried out by means of a rotationally-drivable dressing unit, characterized in that the following steps are carried out: - executing a relative shift movement per tool rotation between the worm grinding wheel and the gear wheel workpiece parallel to the tool axis of rotation, - executing an axially-parallel relative movement per tool rotation between the worm grinding wheel and the gear wheel workpiece in parallel or diagonally to the workpiece axis of rotation, wherein a ratio between the shift movement and the axially-parallel relative movement is specified, which is variable, so that during the generating grinding of a gear wheel workpiece after the dressing procedure, a different ratio is used than during the generating grinding of a gear wheel workpiece before the dressing procedure. - executing a relative shift movement per tool rotation between the worm grinding wheel and the gear wheel workpiece parallel to the tool axis of rotation, - executing an axially-parallel relative movement per tool rotation between the worm grinding wheel and the gear wheel workpiece in parallel or diagonally to the workpiece axis of rotation,
A method of operating a surgical microscope positioned in an optical pathway between a surgical field and an observer, the method comprising steps of: receiving light reflected from the surgical field at an image sensor of the surgical microscope; processing the received light to generate image data; identifying portions of the image data representative of glare from the surgical field; and controlling an optical element positioned in the optical pathway to limit transmission of light associated with the glare. receiving light reflected from the surgical field at an image sensor of the surgical microscope; processing the received light to generate image data; identifying portions of the image data representative of glare from the surgical field; and controlling an optical element positioned in the optical pathway to limit transmission of light associated with the glare.
Two-part plastic injection mold (1a, 1b) with a movable part relative to a fixed part, the mold having at least one locking mechanism and unlocking, characterized in that said at least one mechanism has a locking shaft passing through the movable part in the direction of the fixed part, the locking shaft being associated with translation and rotation means carried by the movable part, the fixed part carrying a fixed axis coaxial with the shaft while partially penetrating into or receiving in its interior one end of the shaft in the locking position of the two parts (1a, 1b), the axis or the shaft carrying locking means cooperating with locking means additional locking (7, 8) carried by the shaft or the axis, the movable part carrying a locking hub carrying removable locking means in translation and in rotation (10, 11) of the shaft, the removable means for locking in translation of the locking hub being in the form of a removable key penetrating transversely into the locking hub and surrounding a portion of the tree.
A computer implemented method for detection of an impedance shift, comprising: determining a pre-shift set of fiducials that includes for each fiducial pre-shift fiducial impedance based location coordinates and pre-shift fiducial magnetic based location coordinates, the pre-shift fiducial impedance based location coordinates and the pre-shift fiducial magnetic location coordinates being associated with a medical device; determining a post-shift set of fiducials that includes for each fiducial a post-shift fiducial impedance location coordinates and post-shift fiducial magnetic location coordinates, the post-shift fiducial impedance location coordinates and the post-shift fiducial magnetic location coordinates being associated with the medical device; fitting a pre-shift transformation to the pre-shift set of fiducials and a post-shift transformation to the post-shift set of fiducials, wherein the pre-shift and post-shift transformations are based on magnetic-impedance mapping for mapping the magnetic based coordinates to corresponding impedance based coordinates; determining that an impedance shift has occurred between the pre-shift set of fiducials and the post-shift set of fiducials, if the pre-shift transformation differs from the post-shift transformation by a particular threshold distance at a current location of the medical device; and generating an indication of a determined impedance shift. determining a pre-shift set of fiducials that includes for each fiducial pre-shift fiducial impedance based location coordinates and pre-shift fiducial magnetic based location coordinates, the pre-shift fiducial impedance based location coordinates and the pre-shift fiducial magnetic location coordinates being associated with a medical device; determining a post-shift set of fiducials that includes for each fiducial a post-shift fiducial impedance location coordinates and post-shift fiducial magnetic location coordinates, the post-shift fiducial impedance location coordinates and the post-shift fiducial magnetic location coordinates being associated with the medical device; fitting a pre-shift transformation to the pre-shift set of fiducials and a post-shift transformation to the post-shift set of fiducials, wherein the pre-shift and post-shift transformations are based on magnetic-impedance mapping for mapping the magnetic based coordinates to corresponding impedance based coordinates; determining that an impedance shift has occurred between the pre-shift set of fiducials and the post-shift set of fiducials, if the pre-shift transformation differs from the post-shift transformation by a particular threshold distance at a current location of the medical device; and generating an indication of a determined impedance shift.