mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a driver assistance system for aiding driving of an automotive vehicle comprising a function for correcting the trajectory of the vehicle moving on a travel lane, the said method comprising a step of measuring the lateral deviation of the vehicle (Y L) with respect to a marking on the travel lane and a step of measuring the angle of relative heading (Ψ L) corresponding to the angle between the longitudinal axis of the vehicle and a line of the travel lane, on the basis of at least one camera fitted to the vehicle, and a step of activating the function for correcting the trajectory as a function of the measured lateral deviation and of the measured angle of relative heading, the method being characterized in that it comprises a step of configuring the triggering of the activation of the function for correcting the trajectory as a function of at least one maximum error observed in the measurement of the lateral deviation ( e y max) and of a maximum error observed in the measurement of the angle of relative heading ( e Ψ max).
Apparatus suitable for precisely and reproducibly transferring an outside the uterus fertilized egg-cell, i.e. embryo to the uterus, which apparatus is provided with an electrical pump, a flexible tube, a motor, control electronics, a power supply and a catheter, characterised in that the pump, the flexible tube, the motor, the control electronics, and the power supply are accommodated in a housing, and wherein the electrical pump is able to aspirate a very small amount of fluid of approximately 30 microlitres, wherein the control electronics provided in the apparatus are for adjusting precisely the suction and pushing force of the pump of the apparatus and the electrical pump is for embryo transfer by aspirating within an exact time limit a first precise and reproducible amount of IVF culture medium into the catheter, then an air bubble, and then again a precise and reproducible amount of IVF culture medium containing the embryo, then again an air bubble, and finally another precise and reproducible amount of culture medium such that diverse physicians are able to transfer the embryo with the same precision and reproducibility using the pump as the pressure when ejecting the embryo is kept constant. aspirating within an exact time limit a first precise and reproducible amount of IVF culture medium into the catheter, then an air bubble, and then again a precise and reproducible amount of IVF culture medium containing the embryo, then again an air bubble, and finally another precise and reproducible amount of culture medium
A catheter, comprising a distal-end-sided shaft of resin tube, a proximal-end-sided shaft more rigid than the distal-end-sided shaft, and a guide wire lumen allowing incorporation of a guide wire inside and having a distal opening and a proximal opening, the guide wire lumen forms the distal opening in the most distal end region of the catheter and the proximal opening in the middle of the distal-end-sided shaft; the distal end region of the proximal-end-sided shaft is connected to the proximal terminal of the distal-end-sided shaft; the distal-end-sided shaft includes the distal-end-sided shaft proximal region and the distal-end-sided shaft distal region; a core wire for adjustment of the flexibility of the distal-end-sided shaft proximal region is so placed in the catheter that the distal-end-sided shaft proximal region becomes harder than the distal-end-sided shaft distal region and softer than the proximal-end-sided shaft, wherein at least part of the core wire in the region corresponding to the distal-end-sided shaft proximal region has a tapered shape with its external diameter gradually decreasing in the direction toward the distal end side, characterized In that the core wire is connected to the distal-end-sided shaft in the area close to the proximal opening of the guide wire lumen and in part of the distal-end-sided shaft proximal region.
A light beam adjusting device comprising: a light collimating portion arranged to collimate a light beam; and a multi-focal converging portion arranged to converge the collimated light beam, the multi-focal converging portion comprising two or more converging surfaces (26, 27, 28), and at least two of the two or more converging surfaces (26, 27, 28) have focal points separated spatially from each other, and wherein all of focal points of the two or more converging surfaces (26, 27, 28) are arranged in the same axis (y) of the multi-focal converging portion, the two or more converging surfaces (26, 27, 28) being arranged in sequence along a radial direction of the multi-focal converging portion, characterized in that the light collimating portion and the multi-focal converging portion are formed integrally as one single part, wherein the light collimating portion is formed at a light incidence side of the single part and the multi-focal converging portion is formed at a light exit side of single part, and wherein the two or more converging surfaces (26, 27, 28) are arranged at a side surface of the single part, and the single part further comprises a reflective face arranged to direct the light beam collimated by the light collimating portion to the two or more converging surfaces (26, 27, 28), the reflective face being arranged at a side of the single part opposite to the light collimating portion. a light collimating portion arranged to collimate a light beam; and a multi-focal converging portion arranged to converge the collimated light beam, the multi-focal converging portion comprising two or more converging surfaces (26, 27, 28), and at least two of the two or more converging surfaces (26, 27, 28) have focal points separated spatially from each other, and wherein all of focal points of the two or more converging surfaces (26, 27, 28) are arranged in the same axis (y) of the multi-focal converging portion, the two or more converging surfaces (26, 27, 28) being arranged in sequence along a radial direction of the multi-focal converging portion, characterized in that the light collimating portion and the multi-focal converging portion are formed integrally as one single part, wherein the light collimating portion is formed at a light incidence side of the single part and the multi-focal converging portion is formed at a light exit side of single part, and wherein the two or more converging surfaces (26, 27, 28) are arranged at a side surface of the single part, and the single part further comprises a reflective face arranged to direct the light beam collimated by the light collimating portion to the two or more converging surfaces (26, 27, 28), the reflective face being arranged at a side of the single part opposite to the light collimating portion.
Wire saw for cutting a piece of material, particularly for slicing, squaring and/or bricking a piece of semiconductor material and/or for cutting a plurality of wafers from a workpiece, comprising: - a housing and - a first compartment in which wire guide rollers (13, 14) for supporting a cutting field formed from a cutting wire are arranged, - a second compartment in which a first cutting wire spool for storing, at least temporarily, cutting wire in multiple loops is arranged, - a first cutting wire path extending from one of the wire guide rollers to the first cutting wire spool, wherein at least a portion of the first cutting wire path is accessible from outside the wire saw through a first opening formed in the housing of the wire saw by an operator who stands outside the wire saw, wherein a main portion of the first cutting wire path extends between a first deflection pulley, which along the first cutting wire path is the closest pulley to one of the wire guide rollers, and a second deflection pulley, which along the first cutting wire path is the closest pulley to the first cutting wire spool, and wherein this main portion of the first cutting wire path is accessible from outside the wire saw through the first opening by an operator who stands outside the wire saw, characterized in that at least one of the wire guide rollers (13, 14) is accessible, preferably continuously accessible, preferably along its entire length, through the first opening. - a housing and - a first compartment in which wire guide rollers (13, 14) for supporting a cutting field formed from a cutting wire are arranged, - a second compartment in which a first cutting wire spool for storing, at least temporarily, cutting wire in multiple loops is arranged, - a first cutting wire path extending from one of the wire guide rollers to the first cutting wire spool,
A method for mapping virtual storage area network identities (VSAN IDs) to media access control addresses comprising: mapping, by a first device, a VSAN IDcorresponding to a fibre channel message into a MAC address according to a preset relation; obtaining, by the first device, a VLAN ID corresponding to the VSAN ID according to the preset relation; and encapsulating, by the first device, the MAC address and the VLAN ID into an Ethernet message corresponding to the FC message; wherein the preset relation is used for mapping multiple VSAN IDs, which correspond to the same VLAN ID, into different MAC addresses. mapping, by a first device, a VSAN IDcorresponding to a fibre channel message into a MAC address according to a preset relation; obtaining, by the first device, a VLAN ID corresponding to the VSAN ID according to the preset relation; and encapsulating, by the first device, the MAC address and the VLAN ID into an Ethernet message corresponding to the FC message; wherein the preset relation is used for mapping multiple VSAN IDs, which correspond to the same VLAN ID, into different MAC addresses.
A compound of formula (Ia) or a pharmaceutically acceptable salt or solvate thereof, wherein: R 1a is selected from CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 1b is selected from H, OH, OR 4, CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 1c is selected from H, OH, OR 4a, CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 1d is selected from H, OH, CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; wherein at least one of R 1b-1d is OH; R 2 is selected from OH, OCH 2 CH=C(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 3 is selected from OH, OR 4, OCH 2 CH=C(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 4 is selected from, methyl, ethyl, propyl, isopropyl, butyl, isobutyl, t -butyl or benzyl; R 4a is selected from ethyl, propyl, isopropyl, butyl, isobutyl, t -butyl or benzyl; and A----B is selected from CH=CH, CH=CHX, or -CH 2 -CH 2 X, where X=(CH 2)pCH 2 and p is an integer selected from the group consisting of 0, 1, 2 or 3. R 1a is selected from CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 1b is selected from H, OH, OR 4, CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 1c is selected from H, OH, OR 4a, CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 1d is selected from H, OH, CH 2 CH=C(CH 3) 2, OCH 2 CH=C(CH 3) 2, CH=CHCH(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; wherein at least one of R 1b-1d is OH; R 2 is selected from OH, OCH 2 CH=C(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 3 is selected from OH, OR 4, OCH 2 CH=C(CH 3) 2, CH=CHC(CH 3)=CH 2, OCH=CHCH(CH 3) 2, or OCH=CHC(CH 3)=CH 2; R 4 is selected from, methyl, ethyl, propyl, isopropyl, butyl, isobutyl, t -butyl or benzyl; R 4a is selected from ethyl, propyl, isopropyl, butyl, isobutyl, t -butyl or benzyl; and A----B is selected from CH=CH, CH=CHX, or -CH 2 -CH 2 X, where X=(CH 2)pCH 2 and p is an integer selected from the group consisting of 0, 1, 2 or 3.
A resuscitator operable in a first, automatic mode whereby gas is delivered to a patient in a regulated cyclical fashion repeatedly until the mode is terminated and in a second mode whereby a cycle of gas is delivered in response to actuation of a manual member, wherein the resuscitator is arranged such that the cycle is only delivered for so long as the manual member (62, 63) is actuated and wherein the resuscitator controls the maximum length of the cycle, characterised in that the resuscitator includes a locking device for holding the manual member in an actuated position for operating the resuscitator in the automatic mode.
A storage controller comprising: a plurality of parallel input channels configured to simultaneously receive a plurality of data from a plurality of redundant memories, respectively; an error estimation unit configured to generate error information by estimating an error level of the plurality of data; a decision unit configured to perform a logical operation on the plurality of data to generate operation data; an error correction unit configured to generate error correction data by correcting an error of the operation data; and a selection unit configured to select one of the operation data or the error correction data based on the error information. a plurality of parallel input channels configured to simultaneously receive a plurality of data from a plurality of redundant memories, respectively; an error estimation unit configured to generate error information by estimating an error level of the plurality of data; a decision unit configured to perform a logical operation on the plurality of data to generate operation data; an error correction unit configured to generate error correction data by correcting an error of the operation data; and a selection unit configured to select one of the operation data or the error correction data based on the error information.
A method of applying a road marking comprising at least one paint strip applied to a road along a path, comprising the following steps: - travelling the path of the paint strip by a survey vehicle in a direction of advance by aligning a visual marker with the paint strip, the survey vehicle comprising a satellite positioning system receiver and an antenna providing the receiver with a satellite positioning signal, the visual marker being aligned with the antenna in the direction of advance, the survey vehicle being configured to determine geo-location data of the travelled path from the satellite positioning signal, wherein the survey vehicle comprises a camera filming the paint strip in the direction of travel, and a display for displaying the images acquired by the camera, wherein the visual marker appears on the display, wherein the visual marker is an arm which is fixed to the survey vehicle and which extends into the acquisition field of the camera above the paint strip, - guiding a paint application vehicle in a direction of travel on the basis of the geolocation data of the travelled path, the paint application vehicle comprising a satellite positioning system receiver and an antenna supplying the receiver with a satellite positioning signal a paint applicator applying paint to the road and being aligned with the antenna in the direction of travel, and a navigation controller controlling the paint applicator from the path geolocation data and the satellite positioning signal, wherein the survey vehicle and/or the paint application vehicle also comprises a radio frequency communication receiver receiving a correction signal for the satellite positioning signal. - travelling the path of the paint strip by a survey vehicle in a direction of advance by aligning a visual marker with the paint strip, the survey vehicle comprising a satellite positioning system receiver and an antenna providing the receiver with a satellite positioning signal, the visual marker being aligned with the antenna in the direction of advance, the survey vehicle being configured to determine geo-location data of the travelled path from the satellite positioning signal, wherein the survey vehicle comprises a camera filming the paint strip in the direction of travel, and a display for displaying the images acquired by the camera, wherein the visual marker appears on the display, wherein the visual marker is an arm which is fixed to the survey vehicle and which extends into the acquisition field of the camera above the paint strip, - guiding a paint application vehicle in a direction of travel on the basis of the geolocation data of the travelled path, the paint application vehicle comprising a satellite positioning system receiver and an antenna supplying the receiver with a satellite positioning signal a paint applicator applying paint to the road and being aligned with the antenna in the direction of travel, and a navigation controller controlling the paint applicator from the path geolocation data and the satellite positioning signal,
A method for treating a hydrophobic release layer of an intermediate transfer member for use in a printing process in which a negatively charged aqueous inkjet ink including an organic polymeric resin and a colorant is jetted onto said layer, the method comprising contacting the release layer with a chemical agent; characterized in that the chemical agent is an amine functionalized silicone, the amine functionalized silicone having at least 0.3 wt.% nitrogen per weight of chemical agent, and an amine number of at least 7 and not more than 300, and optionally, within a range of 50-150; and a molecular weight of at least 500 and not more than 50,000.
A mattress comprising: (i) a perimeter rail having a head end, a foot end, and two sides (14a, 14b), each having an inner surface (20,22,24a, 24b); and (ii) at least two rectilinear sections (6a, 6b), aligned substantially parallel to each other in a horizontally adjacent relationship, wherein each section (6a, 6b) consists of a single housing comprising an array of springs having a pre-selected tension and which are vertically disposed when in a use position, characterised in that each section (6a, 6b)is attached at least to the inner surfaces (20, 22) of the head end and the foot end of the perimeter rail; the sections (6a, 6b)and the perimeter rail are attached at respective lower faces (36, 32) to a lower resilient layer and at their upper faces (34, 30) to an upper resilient layer; each adjacent pair of sections (6a, 6b)is urged into a spaced-apart relationship by a spacing means, which is constructed and dimensioned to restrict translation of movement between the adjacent pair of sections (6a, 6b) without obstructing passage of users across the adjacent pair of sections (6a, 6b); the pre-selected tension for the array of springs for each section differs from the pre-selected tension of the arrays of springs of other sections; and each spacing means comprises a flexible spacer which is retained along its length between the upper and lower resilient layers (38, 40)and is attached at its ends to the perimeter rail. (i) a perimeter rail having a head end, a foot end, and two sides (14a, 14b), each having an inner surface (20,22,24a, 24b); and (ii) at least two rectilinear sections (6a, 6b), aligned substantially parallel to each other in a horizontally adjacent relationship, wherein each section (6a, 6b) consists of a single housing comprising an array of springs having a pre-selected tension and which are vertically disposed when in a use position,
A sensing system providable in a vehicle capable of running in an autonomous driving mode, the sensing system (4a-d) comprising: a LiDAR unit (44a-d) configured to acquire point group data indicating surrounding environment of the vehicle; and a LiDAR control module (430a-d) configured to identify information associated with a target object existing around the vehicle, based on the point group data acquired from the LiDAR unit (44a-d), wherein the LiDAR control module (430a-d) is configured to control the LiDAR unit (44a-d) so as to increase a scanning resolution of the LiDAR unit (44a-d) in a first angular area (Sx) in a detection area of the LiDAR unit (44a-d), wherein the first angular area (Sx) is an area where the target object exists, characterized in that when an attribute of the target object cannot be identified by the LIDAR control module (430 a-d) based on the point group data acquired from the LiDAR unit (44a-d), the LiDAR control module (430a-d) is configured to control the LiDAR unit (44a-d) so as to further increase the scanning resolution of the LiDAR unit (44a-d) in the first angular area (Sx), and the LiDAR control module (430a-d) is configured to control the LiDAR unit (44a-d) so as to gradually increase the scanning resolution of the LiDAR unit (44a-d) in the first angular area (Sx) until the LIDAR control module (430 a-d) identifies the attribute of the target object. a LiDAR unit (44a-d) configured to acquire point group data indicating surrounding environment of the vehicle; and a LiDAR control module (430a-d) configured to identify information associated with a target object existing around the vehicle, based on the point group data acquired from the LiDAR unit (44a-d), wherein the LiDAR control module (430a-d) is configured to control the LiDAR unit (44a-d) so as to increase a scanning resolution of the LiDAR unit (44a-d) in a first angular area (Sx) in a detection area of the LiDAR unit (44a-d), wherein the first angular area (Sx) is an area where the target object exists, characterized in that when an attribute of the target object cannot be identified by the LIDAR control module (430 a-d) based on the point group data acquired from the LiDAR unit (44a-d), the LiDAR control module (430a-d) is configured to control the LiDAR unit (44a-d) so as to further increase the scanning resolution of the LiDAR unit (44a-d) in the first angular area (Sx), and the LiDAR control module (430a-d) is configured to control the LiDAR unit (44a-d) so as to gradually increase the scanning resolution of the LiDAR unit (44a-d) in the first angular area (Sx) until the LIDAR control module (430 a-d) identifies the attribute of the target object.
Siphonic roof drain for draining rain water under subatmospheric pressure, which siphonic roof drain comprises at least a drain bottom and a separate drain connector coupled to a complementary pipe connector being provided on a drain pipe or provided on a pipe section which can be connected to a drain pipe, wherein the drain connector is predominantly tub-shaped and comprises a first bottom and a first standing edge, which first bottom is provided with a first central feed-through opening for the feed-through of the drain pipe or the pipe section, and in that the drain bottom (3,4) is built of at least two separate parts and in that the drain bottom comprises a bottom clamping piece and a top clamping piece, which bottom clamping piece is predominantly tub-shaped and is provided with a second bottom and a second standing edge provided at a distance from the second bottom with a first flange directed mainly parallel to the second bottom, whereby the second bottom is provided with a second central feed-through opening, and in that the pipe connector comprises a collar which is provided between the first bottom of the drain connector and the second bottom of the bottom clamping piece and in that connecting means are provided to connect the drain connector with the drain bottom (3,4), which connecting means at least extend through the second bottom of the bottom clamping piece.