mhurhangee/ep-ind-claims huggingface dataset:
A build material management system for a 3D printing system, the build material management system comprising: a housing comprising: one or more air-flow ports to connect to one or more respective transportable containers, the transportable containers to contain a volume of build material comprising 3D printed parts and a portion of non-fused build material; and a pump operable to provide a pressure differential across a conduit network of the build material management system, the conduit network connecting the air-flow port(s) to the pump; and processing circuitry to control the pump to cause an air-flow through at least one of the one or more air-flow ports whereby to cause cooling within the respective transportable container(s). wherein either: the one or more air-flow ports is at least two air-flow ports connectable to respective transportable containers; or the housing does not comprise a filling port for filling the or a further transportable container with at least a portion of fresh build material for use in a subsequent 3D printing operation. a housing comprising: one or more air-flow ports to connect to one or more respective transportable containers, the transportable containers to contain a volume of build material comprising 3D printed parts and a portion of non-fused build material; and a pump operable to provide a pressure differential across a conduit network of the build material management system, the conduit network connecting the air-flow port(s) to the pump; and one or more air-flow ports to connect to one or more respective transportable containers, the transportable containers to contain a volume of build material comprising 3D printed parts and a portion of non-fused build material; and a pump operable to provide a pressure differential across a conduit network of the build material management system, the conduit network connecting the air-flow port(s) to the pump; and processing circuitry to control the pump to cause an air-flow through at least one of the one or more air-flow ports whereby to cause cooling within the respective transportable container(s). wherein either: the one or more air-flow ports is at least two air-flow ports connectable to respective transportable containers; or the housing does not comprise a filling port for filling the or a further transportable container with at least a portion of fresh build material for use in a subsequent 3D printing operation. the one or more air-flow ports is at least two air-flow ports connectable to respective transportable containers; or the housing does not comprise a filling port for filling the or a further transportable container with at least a portion of fresh build material for use in a subsequent 3D printing operation.
A composition comprising a therapeutically effective amount of an α2 adrenergic receptor agonist and a pharmaceutically acceptable carrier for use in treating or preventing psoriasis or a symptom associated therewith in a subject, wherein the composition is to be topically administered to a skin area of the subject that is, or is prone to be, affected by psoriasis or the symptom associated therewith, and wherein the α2 adrenergic receptor agonist is brimonidine or a pharmaceutically acceptable salt thereof.
Process for producing a spectacle lens comprising, proceeding from the front face on the object side of the spectacle lens to the opposite reverse face of the spectacle lens, at least components A, B and C, where component A comprises an ultrathin lens, component B comprises at least one polymeric material or at least one mineral glass, component C comprises at least one ultrathin lens, the ultrathin lens has an average thickness from a range from 90 μm to 210 μm, the spectacle lens has a middle thickness from a range from 0.34 mm to 2.22 mm, and the spectacle lens has no damage after impact of a steel ball of size 15.87 mm and weight 16.36 g from a height of 1.27 m, and the process comprises the following steps: i. providing an ultrathin lens of component A and providing an ultrathin lens of component C, ii. providing a semifinished spectacle lens of component B comprising a polymeric material or a mineral glass, where the optically effective target face of component B may optionally be covered with a functional layer, iii. bonding the optically effective target face of component B to the reverse face of component A or the front face of component C, iv. converting the opposite face of component B from the optically effective target face to a likewise optically effective target face, v. bonding the spectacle lens obtained in step iv. comprising components A and B or B and C to the ultrathin lens of component C or to the ultrathin lens of component A, vi. edging the spectacle lens obtained in step v. comprising components A, B and C. i. providing an ultrathin lens of component A and providing an ultrathin lens of component C, ii. providing a semifinished spectacle lens of component B comprising a polymeric material or a mineral glass, where the optically effective target face of component B may optionally be covered with a functional layer, iii. bonding the optically effective target face of component B to the reverse face of component A or the front face of component C, iv. converting the opposite face of component B from the optically effective target face to a likewise optically effective target face, v. bonding the spectacle lens obtained in step iv. comprising components A and B or B and C to the ultrathin lens of component C or to the ultrathin lens of component A, vi. edging the spectacle lens obtained in step v. comprising components A, B and C.
A compound according to formula, or a pharmaceutically acceptable salt thereof, wherein R 1 is a C 1-4 alkyl or a C 3-5 cycloalkyl, either of which groups are optionally substituted by one or more halogen substituents; R 2 is a C 1-4 alkyl substituted by one hydroxy or alkoxy substituent; R 3 is a halogen; or C 1-4 alkyl or C 3-4 cycloalkyl, either of which groups are optionally substituted by one or more halogen atoms. R 1 is a C 1-4 alkyl or a C 3-5 cycloalkyl, either of which groups are optionally substituted by one or more halogen substituents; R 2 is a C 1-4 alkyl substituted by one hydroxy or alkoxy substituent; R 3 is a halogen; or C 1-4 alkyl or C 3-4 cycloalkyl, either of which groups are optionally substituted by one or more halogen atoms.
Method for determining a source of danger on a travel route, wherein during travel by vehicle along the travel route a vehicle parameter is measured (101, 102) and is compared (103, 203) with a vehicle parameter threshold value, wherein danger data comprising the measured vehicle parameter and a vehicle location assigned to the measurement are formed as a function of the comparison, for information about the fact that a danger source is formed (105, 205) at the vehicle location which is assigned to the measurement, characterized in that if the vehicle parameter is a vertical acceleration, the danger source is classified as damage to the roadway, for example as a pothole.
An apparatus configured for a medical probe or catheter, comprising: a spring having a resilient member comprising a central ring and interposed between two contacting elements (46, 48); and extensions connected to the resilient member that are in contact with the elements (46, 48), wherein a force applied to at least one of the elements (46, 48) causes a deformation of the spring that correlates with a displacement of the elements (46, 48) relative to one another; characterised in that the extensions comprise a plurality of legs attached to the central ring, including first legs and second legs, wherein the first legs and the second legs extend respectively in opposite first and second perpendicular directions to the ring. a spring having a resilient member comprising a central ring and interposed between two contacting elements (46, 48); and extensions connected to the resilient member that are in contact with the elements (46, 48), wherein a force applied to at least one of the elements (46, 48) causes a deformation of the spring that correlates with a displacement of the elements (46, 48) relative to one another; characterised in that the extensions comprise a plurality of legs attached to the central ring, including first legs and second legs, wherein the first legs and the second legs extend respectively in opposite first and second perpendicular directions to the ring.
An information processing system comprising: an image acquisition unit configured to acquire an image of a scene, a display screen (108, 208), an image recognition unit configured to recognize in the acquired image an operation object initiated by a user, to recognize in the acquired image the face of the user and to identify the user, and processing circuitry configured to control the display screen (108, 208) to display the acquired image as a mirror image of the scene, control movements of UI objects (Obj; B11-26) on the display screen (108, 208) from a respective pre-recognition position towards a respective post-recognition position in response to recognition of the operation object, wherein the movements of the UI objects (Obj; B11-26) comprises the UI objects (Obj; B11-26) approaching towards a displayed position of the recognized operation object displayed on the display screen, wherein the processing circuitry is configured to vary a mode of approach of each UI object in accordance with a parameter related to the respective UI object, and the mode of approach of the UI objects is non-uniform such that respective speeds of approach are different for different UI objects, wherein the parameter is a priority depending on the identification of the user. an image acquisition unit configured to acquire an image of a scene, a display screen (108, 208), an image recognition unit configured to recognize in the acquired image an operation object initiated by a user, to recognize in the acquired image the face of the user and to identify the user, and processing circuitry configured to control the display screen (108, 208) to display the acquired image as a mirror image of the scene, control movements of UI objects (Obj; B11-26) on the display screen (108, 208) from a respective pre-recognition position towards a respective post-recognition position in response to recognition of the operation object, wherein the movements of the UI objects (Obj; B11-26) comprises the UI objects (Obj; B11-26) approaching towards a displayed position of the recognized operation object displayed on the display screen, wherein control the display screen (108, 208) to display the acquired image as a mirror image of the scene, control movements of UI objects (Obj; B11-26) on the display screen (108, 208) from a respective pre-recognition position towards a respective post-recognition position in response to recognition of the operation object, wherein the movements of the UI objects (Obj; B11-26) comprises the UI objects (Obj; B11-26) approaching towards a displayed position of the recognized operation object displayed on the display screen, wherein the processing circuitry is configured to vary a mode of approach of each UI object in accordance with a parameter related to the respective UI object, and the mode of approach of the UI objects is non-uniform such that respective speeds of approach are different for different UI objects, wherein the parameter is a priority depending on the identification of the user.
A window (1, 20), comprising: a plate of non-metallic material having a first face and a second face opposing one another and having an outer edge defined therebetween; and a metallic frame member (12, 22) fitted around the outer edge of the plate and adapted to preload the plate with a compressive stress that is sufficiently high such that the sum of the compressive stress, tensile stress and shear stress components generated in the plate under high-pressure conditions is always compressive, characterized in that the window (1, 20) is suitable for a gamma densitometer and in that the window is suitable for a pressurized fluid to contact an outer surface of the metallic frame member (12, 22) as well as the first face of the plate such that pressure from the fluid increases the compressive stress applied by the metallic frame member (12, 22) to the outer edge of the plate. a plate of non-metallic material having a first face and a second face opposing one another and having an outer edge defined therebetween; and a metallic frame member (12, 22) fitted around the outer edge of the plate and adapted to preload the plate with a compressive stress that is sufficiently high such that the sum of the compressive stress, tensile stress and shear stress components generated in the plate under high-pressure conditions is always compressive, characterized in that the window (1, 20) is suitable for a gamma densitometer and in that the window is suitable for a pressurized fluid to contact an outer surface of the metallic frame member (12, 22) as well as the first face of the plate such that pressure from the fluid increases the compressive stress applied by the metallic frame member (12, 22) to the outer edge of the plate.
An image forming apparatus comprising: an image bearing member for carrying a toner image; an endless movable belt which is movable along an endless path; a transfer member opposed to the image bearing member with said belt therebetween; a supporting member for supporting said transfer member, said supporting member being swingable; and a press member for pressing said supporting member in pressing direction toward said belt, wherein said supporting member is rotatable during movement of said belt, about an axis of a rotational shaft so as to move in a direction perpendicular to a moving direction of said belt, said transfer member includes a contact portion (110, 110a, 114) capable of surface contact to an inside surface of said belt without rotation relative to said supporting member, said rotational shaft is disposed at a position which is away from an inner surface of said belt in the endless path and which is upstream of said contact portion (110, 110a, 114) with respect to the moving direction of said belt, and a position where said press member contacts said supporting member is downstream of said rotational shaft with respect to a movement direction of said belt, characterized in that said transfer member includes an elastic member having a compression elasticity and a film-like portion, said elastic member being arranged to cooperate with said belt such that the film-like portion is in contact with the belt and positioned between the elastic member and the belt. an image bearing member for carrying a toner image; an endless movable belt which is movable along an endless path; a transfer member opposed to the image bearing member with said belt therebetween; a supporting member for supporting said transfer member, said supporting member being swingable; and a press member for pressing said supporting member in pressing direction toward said belt, wherein said supporting member is rotatable during movement of said belt, about an axis of a rotational shaft so as to move in a direction perpendicular to a moving direction of said belt, said transfer member includes a contact portion (110, 110a, 114) capable of surface contact to an inside surface of said belt without rotation relative to said supporting member, said rotational shaft is disposed at a position which is away from an inner surface of said belt in the endless path and which is upstream of said contact portion (110, 110a, 114) with respect to the moving direction of said belt, and a position where said press member contacts said supporting member is downstream of said rotational shaft with respect to a movement direction of said belt, characterized in that said transfer member includes an elastic member having a compression elasticity and a film-like portion, said elastic member being arranged to cooperate with said belt such that the film-like portion is in contact with the belt and positioned between the elastic member and the belt.
A process for preparing -endoxifen, comprising (i) recrystallizing an input crystalline solid comprising a mixture of -endoxifen and -endoxifen from a first solvent, wherein the first solvent is isopropyl acetate, toluene, methyl ethyl ketone, or methyl isobutyl ketone, to provide a first crystalline solid and a first mother liquor, wherein the first mother liquor has a ratio of to at least 1.3 times greater than the ratio in the input crystalline solid; (ii) recrystallizing a solid produced by concentrating the first mother liquor, or by removal of the first solvent from the first mother liquor, from a second solvent, wherein the second solvent is methanol, ethanol, or acetone, to give a second crystalline solid and a second mother liquor; (iii) optionally recrystallizing the second crystalline solid from the second solvent one to five additional times to give a third crystalline solid; wherein the third crystalline solid has a ratio of -endoxifen to -endoxifen greater than 20:1. (i) recrystallizing an input crystalline solid comprising a mixture of -endoxifen and -endoxifen from a first solvent, wherein the first solvent is isopropyl acetate, toluene, methyl ethyl ketone, or methyl isobutyl ketone, to provide a first crystalline solid and a first mother liquor, wherein the first mother liquor has a ratio of to at least 1.3 times greater than the ratio in the input crystalline solid; (ii) recrystallizing a solid produced by concentrating the first mother liquor, or by removal of the first solvent from the first mother liquor, from a second solvent, wherein the second solvent is methanol, ethanol, or acetone, to give a second crystalline solid and a second mother liquor; (iii) optionally recrystallizing the second crystalline solid from the second solvent one to five additional times to give a third crystalline solid;
Method for controlling a rotor movement of a rotor of a wind turbine, the method comprising: determining a current rotor acceleration value; controlling the rotor movement based on the measured rotor acceleration value, wherein controlling the rotor movement is performed such that the rotor speed value and the rotor acceleration value lie within a set of 2-tuples but not outside the set of 2-tuples, wherein the set of 2-tuples is defined as a continuous region in a rotor speed/rotor acceleration coordinate system (301,303), wherein controlling the rotor movement is further based on a current rotor speed value, wherein acceleration limits (a1, a2, a3, a4) are defined as a function of rotor speed (w1, w2, w3, w4), characterized in that at a relatively low rotor speed, a rotor acceleration value which is relatively high is tolerated, while for a relatively high rotor speed, a relatively lower rotor acceleration value is tolerated. determining a current rotor acceleration value; controlling the rotor movement based on the measured rotor acceleration value, wherein controlling the rotor movement is further based on a current rotor speed value, wherein acceleration limits (a1, a2, a3, a4) are defined as a function of rotor speed (w1, w2, w3, w4), characterized in that at a relatively low rotor speed, a rotor acceleration value which is relatively high is tolerated, while for a relatively high rotor speed, a relatively lower rotor acceleration value is tolerated.
An ESD protection device comprising: a plurality of contiguous semiconductor regions of alternating conductivity type including first and second (114, 122) regions that form a first P-N junction therebetween, a third region (116, 124) that forms a P-N junction with the second region, a fourth region that forms a P-N junction with the third region and a fifth region that forms a P-N junction with the fourth region; a first contact connected to the first region; a second contact connected to the fifth region; a resistor connected between the third region and the fifth region; the resistor and the first, second, third and fifth regions forming a first current path configured to flow current between the first and second contacts via the first and fifth regions in response to a voltage exceeding a breakdown threshold of a first transistor formed by the first, second and third regions; and the first, second, third, fourth and fifth regions forming a second current path configured to flow current between the first and second contacts via the first and fifth regions in response to the current across the resistor exceeding a threshold at which the voltage across a second transistor formed by the third, fourth and fifth regions reaches a breakdown voltage of the second transistor. a plurality of contiguous semiconductor regions of alternating conductivity type including first and second (114, 122) regions that form a first P-N junction therebetween, a third region (116, 124) that forms a P-N junction with the second region, a fourth region that forms a P-N junction with the third region and a fifth region that forms a P-N junction with the fourth region; a first contact connected to the first region; a second contact connected to the fifth region; a resistor connected between the third region and the fifth region; the resistor and the first, second, third and fifth regions forming a first current path configured to flow current between the first and second contacts via the first and fifth regions in response to a voltage exceeding a breakdown threshold of a first transistor formed by the first, second and third regions; and the first, second, third, fourth and fifth regions forming a second current path configured to flow current between the first and second contacts via the first and fifth regions in response to the current across the resistor exceeding a threshold at which the voltage across a second transistor formed by the third, fourth and fifth regions reaches a breakdown voltage of the second transistor.
A method for melt-spinning, drawing, crimping, and winding a plurality of threads, in which method the threads from a plurality of spinning nozzles are spun beside one another, on at least one godet unit are collectively guided as a thread skein, are drawn, and for crimping are subsequently guided beside one another to a plurality of texturing apparatuses, characterized in that the threads in a singularized manner and having a plurality of wrappings are guided beside one another on the godet unit, and in which method the threads after running off from the godet unit are guided into the texturing apparatuses in a straight thread run so as to be in parallel beside one another.
A flow cell device for performing DNA sequencing, comprising: a solid support comprising a surface having a degradable hydrogel encapsulating DNA deposited thereon, wherein the degradable hydrogel comprises pores that are sized to allow diffusion of a reagent through the hydrogel, but are too small to allow DNA to traverse the pores.