mhurhangee/ep-ind-claims huggingface dataset:
Measuring arrangement having a measuring cell for detecting a process parameter and a substantially hollow cylindrically formed housing that at least radially surrounds the measuring cell, wherein the measuring cell is arranged in the axial direction on the front side in the housing and a space between the measuring cell and the housing is sealed with a seal against penetration by a process medium, characterised in that the seal has at least one first sealing element that radially surrounds the measuring cell and a second sealing element that radially surrounds the measuring cell, the second sealing element is arranged at a distance from the first sealing element in the axial direction and in front of it and the housing has at least one first section extending in the axial direction and at least one second section arranged thereon and extending in the radial direction between the sealing elements (2a, 2b, 2c).
A method for determining a bite line on a lasted shoe upper, the method comprising: mating a lasted upper with a sole configured for the lasted upper; collecting three-dimensional data representing the mated lasted upper and the sole as mated three-dimensional data, wherein the mated three-dimensional data includes at least an edge defined by a transition from the lasted upper to the sole, the edge identifying the bite line on the lasted upper; repositioning the sole relative to the lasted upper into an un-mated configuration; and collecting three-dimensional data representing the un-mated lasted upper and the sole as un-mated three-dimensional data; characterized by determining, by a computing device, the bite line for the lasted upper based on the mated three-dimensional data and the un-mated three-dimensional data, wherein determining the bite line is comprised of: identifying points where the mated three-dimensional data diverges from the un-mated three-dimensional data to identify the bite line location of the lasted upper.
A substituted tetracycline compound of formula (VIIa): wherein R 9m* is unsubstituted or substituted oxazolyl, unsubstituted or substituted oxadiazolyl, unsubstituted or substituted isoxazolyl, unsubstituted or substituted pyrazolyl, unsubstituted or substituted thiazolyl, methylimidazolyl, or -CONR 9ma R 9mb; and R 9ma is hydrogen and R 9mb is hydroxyl, alkyl, hydroxyalkyl, aryl or alkoxy; or R 9ma is alkyl and R 9mb is alkyl or hydroxyl; or a pharmaceutically acceptable salt thereof.
A start control device for a vehicle including a manual transmission, a clutch arranged to connect and disconnect a power transmission from an engine to a driving wheel at a shift operation by the manual transmission, a clutch pedal arranged to operate an engagement and a disengagement of the clutch, and an accelerator opening degree sensing means arranged to sense an accelerator opening degree, the vehicle start control device being characterized by comprising: an information transmitting means configured to inform a driver that an accelerator pedal becomes the accelerator opening degree at which the clutch pedal is returned when the accelerator opening degree becomes equal to or greater than a predetermined accelerator opening degree threshold value, which is an accelerator opening degree at which an engine speed necessary at the start of the vehicle can be obtained, by a depression of the accelerator pedal in a state where the clutch is disengaged by a depression of the clutch pedal at a start of the vehicle, and the accelerator opening degree threshold value is corrected in accordance with a running resistance at the start of the vehicle; and the accelerator opening degree threshold value at the large running resistance is relatively larger than the accelerator opening degree threshold value at the small running resistance. an information transmitting means configured to inform a driver that an accelerator pedal becomes the accelerator opening degree at which the clutch pedal is returned when the accelerator opening degree becomes equal to or greater than a predetermined accelerator opening degree threshold value, which is an accelerator opening degree at which an engine speed necessary at the start of the vehicle can be obtained, by a depression of the accelerator pedal in a state where the clutch is disengaged by a depression of the clutch pedal at a start of the vehicle, and the accelerator opening degree threshold value is corrected in accordance with a running resistance at the start of the vehicle; and the accelerator opening degree threshold value at the large running resistance is relatively larger than the accelerator opening degree threshold value at the small running resistance.
A structure comprising two shell parts (20, 30) which are connected to each other with at least one snap connection, wherein the two shell parts comprise, on the inner side, mutually complementary male and female snap means (25, 35) configured to form said snap connection, and wherein the two shell parts have complementarily configured abutment faces that abut on each other when the male and female snap means are interconnected (25, 35), characterised in that the male and female snap means (25, 35) comprise an external spiral-shaped protrusion configured on the male snap means, and a thereto complementarily configured, internal, spiral-shaped protrusion configured on the female snap means, and wherein the external spiral-shaped protrusion on the male snap means is configured such that it engages with the internal spiral-shaped protrusion on the female snap means; and that the structure comprises rotation-preventive means configured such that the two shell parts are unable to rotate relative to each other when the male and female snap means are interconnected to form said at least one snap connection.
A depth imaging system, comprising: a reflector subsystem comprising a flat reflector and an ellipsoidal reflector; a projector subsystem configured to project light to be used for depth imaging onto the reflector subsystem for reflection toward objects within a radial field of view of a surrounding environment, wherein the ellipsoidal reflector is configured to reflect the projected light toward the flat reflector, and wherein the flat reflector is configured to reflect the projected light reflected by the ellipsoidal reflector toward the objects within the radial field of view of the surrounding environment; an imaging subsystem comprising an image sensor and configured to acquire ring-shaped image data based on the projected light reflected by the objects within the radial field of view of the surrounding environment and reflected by the reflector subsystem, wherein the flat reflector is configured to reflect the projected light reflected by the objects within the radial field of view of the surrounding environment toward the ellipsoidal reflector, and wherein the ellipsoidal reflector is configured to reflect the projected light reflected by the flat reflector toward the image sensor; and a computing device comprising a logic subsystem and a storage subsystem for storing instructions causingtoythe logic subsystem to execute the steps of: receiving the ring-shaped image data from the image sensor, correcting distortion in the received ring-shaped image data, and outputting depth image data based on an analysis of the corrected image data. a reflector subsystem comprising a flat reflector and an ellipsoidal reflector; a projector subsystem configured to project light to be used for depth imaging onto the reflector subsystem for reflection toward objects within a radial field of view of a surrounding environment, wherein the ellipsoidal reflector is configured to reflect the projected light toward the flat reflector, and wherein the flat reflector is configured to reflect the projected light reflected by the ellipsoidal reflector toward the objects within the radial field of view of the surrounding environment; an imaging subsystem comprising an image sensor and configured to acquire ring-shaped image data based on the projected light reflected by the objects within the radial field of view of the surrounding environment and reflected by the reflector subsystem, wherein the flat reflector is configured to reflect the projected light reflected by the objects within the radial field of view of the surrounding environment toward the ellipsoidal reflector, and wherein the ellipsoidal reflector is configured to reflect the projected light reflected by the flat reflector toward the image sensor; and a computing device comprising a logic subsystem and a storage subsystem for storing instructions causingtoythe logic subsystem to execute the steps of: receiving the ring-shaped image data from the image sensor, correcting distortion in the received ring-shaped image data, and outputting depth image data based on an analysis of the corrected image data.
An improved pump-to-point, closed loop lubricating system for high pressure machinery comprising a pressurized feed pump for supplying food grade lubricant oil to the high pressure machinery wherein the pressurized feed pump comprises a cam, a lever, and a bushing, a first reservoir containing lubricating oil for lubricating the cam, the lever, and the bushing of the pressurized feed pump, a second reservoir containing the food grade oil for use in the high pressure machinery, and a differential pressure flow meter wherein the amount of food grade oil is supplied to the high pressure machinery from the second reservoir via the flow meter by the pressurized feed pump at one or more machine injection points and is monitored by said flow meter connected to a computer, the computer being capable of producing an audible and/or visual warning, shutting down the system or adjusting the flow of lubricant to the pressurized feed pump or the one or more machine injection points.
A tennis racket, comprising: a handle with a butt end; a head configured to support strings; and a throat connecting the handle and the head; wherein the racket has a Power Maneuverability Ratio greater than about 4500, the Power Maneuverability Ratio governed by the equation: PMR = SW RW PUW, where SW = the moment of inertia in kilogram-centimeters squared of the tennis racket about a swingweight axis that is perpendicular to a longitudinal axis of the tennis racket, parallel to a tennis ball hitting surface contained by the head, and intersecting a point on the handle that is 101.6 mm (four inches) from the butt end along the longitudinal axis, RW = SW − Wt 1000 b 10 − 10.16 2, Wt = the weight of the racket in grams, b = the distance in millimeters between a center of gravity of the racket to the butt end, TW = the moment of inertia of the tennis racket about the longitudinal axis, and PUW = ( Wt)( b) a handle with a butt end; a head configured to support strings; and a throat connecting the handle and the head; wherein the racket has a Power Maneuverability Ratio greater than about 4500, the Power Maneuverability Ratio governed by the equation: PMR = SW RW PUW, where SW = the moment of inertia in kilogram-centimeters squared of the tennis racket about a swingweight axis that is perpendicular to a longitudinal axis of the tennis racket, parallel to a tennis ball hitting surface contained by the head, and intersecting a point on the handle that is 101.6 mm (four inches) from the butt end along the longitudinal axis, RW = SW − Wt 1000 b 10 − 10.16 2, Wt = the weight of the racket in grams, b = the distance in millimeters between a center of gravity of the racket to the butt end, TW = the moment of inertia of the tennis racket about the longitudinal axis, and PUW = ( Wt)( b)
A method comprising: receiving, by a wireless device, one or more messages comprising configuration parameters for a primary cell, wherein the primary cell comprises a first search space and a second search space, and wherein the configuration parameters comprise: a first indication indicating that the first search space is enabled with self-carrier scheduling; a second indication indicating that the second search space is enabled with cross-carrier scheduling; and a third indication, of a secondary cell, for cross-carrier scheduling the primary cell; monitoring for downlink control information, wherein the monitoring comprises at least one of: monitoring, based on the first indication, the first search space for self-carrier scheduling via the primary cell; or monitoring, based on the second indication, a third search space for cross-carrier scheduling via the secondary cell; and receiving, based on the monitoring for DCI, at least one resource assignment for the primary cell. receiving, by a wireless device, one or more messages comprising configuration parameters for a primary cell, wherein the primary cell comprises a first search space and a second search space, and wherein the configuration parameters comprise: a first indication indicating that the first search space is enabled with self-carrier scheduling; a second indication indicating that the second search space is enabled with cross-carrier scheduling; and a third indication, of a secondary cell, for cross-carrier scheduling the primary cell; a first indication indicating that the first search space is enabled with self-carrier scheduling; a second indication indicating that the second search space is enabled with cross-carrier scheduling; and a third indication, of a secondary cell, for cross-carrier scheduling the primary cell; monitoring for downlink control information, wherein the monitoring comprises at least one of: monitoring, based on the first indication, the first search space for self-carrier scheduling via the primary cell; or monitoring, based on the second indication, a third search space for cross-carrier scheduling via the secondary cell; and monitoring, based on the first indication, the first search space for self-carrier scheduling via the primary cell; or monitoring, based on the second indication, a third search space for cross-carrier scheduling via the secondary cell; and receiving, based on the monitoring for DCI, at least one resource assignment for the primary cell.
A medical tube for intrapelvic treatment of urinary incontinence comprising atubular main body having an internal space in which an implant main body can be inserted and the tubular main body having a curved central portion, and at least part of the central portion having a circular arc shape; the medical tube wherein the main body has a flattened circle shape including a minor axis in the direction of a front surface and a back surface and a major axis in the direction of an inner circumferential portion and an outer circumferential portion as a cross-sectional shape at the central portion, the inner circumferential portion and the outer circumferential portion are located to be space from each other in the direction of a center axis of the circular arc, and characterized in that the angle (θ1) formed between the minor axis and a plane containing both a center point of the circular arc of the central portion and a center point of the cross-sectional shape of the central portion and a longitudinal direction of the main body at the central portion is an acute angle (θ1).
A portable surgical system comprising: a) a flexible enclosure separating a surgical environment inside the enclosure from an user environment outside the enclosure, the enclosure comprising: an incise drape incorporated into a bottom of an operating-section of the enclosure and configured to be disposed on or around a surgical site of a patient's body and to expose the surgical site, wherein the size and shape of the incise drape is configured to cover the surgical site; and one or more areas of high optical clarity for viewing the inside of the enclosure; wherein, while the surgical system is deployed in use, only the surgical site covered by the incise drape is included within the surgical enclosure, and the remainder of the patient body is essentially excluded from the surgical environment inside the enclosure; b) an environmental control system configured to supply air to the enclosure such as to create essentially sterile conditions inside the enclosure; c) a flexible tube configured to act as a valve system and prevent air backflow from the surgical enclosure into the environmental control system; and d) one or more ports for accessing the surgical site. a) a flexible enclosure separating a surgical environment inside the enclosure from an user environment outside the enclosure, the enclosure comprising: an incise drape incorporated into a bottom of an operating-section of the enclosure and configured to be disposed on or around a surgical site of a patient's body and to expose the surgical site, wherein the size and shape of the incise drape is configured to cover the surgical site; and one or more areas of high optical clarity for viewing the inside of the enclosure; wherein, while the surgical system is deployed in use, only the surgical site covered by the incise drape is included within the surgical enclosure, and the remainder of the patient body is essentially excluded from the surgical environment inside the enclosure; an incise drape incorporated into a bottom of an operating-section of the enclosure and configured to be disposed on or around a surgical site of a patient's body and to expose the surgical site, wherein the size and shape of the incise drape is configured to cover the surgical site; and one or more areas of high optical clarity for viewing the inside of the enclosure; wherein, while the surgical system is deployed in use, only the surgical site covered by the incise drape is included within the surgical enclosure, and the remainder of the patient body is essentially excluded from the surgical environment inside the enclosure; b) an environmental control system configured to supply air to the enclosure such as to create essentially sterile conditions inside the enclosure; c) a flexible tube configured to act as a valve system and prevent air backflow from the surgical enclosure into the environmental control system; and d) one or more ports for accessing the surgical site.
A transformer for switched-mode power supplies, comprising - a magnetizable core having a winding axis, - at least one primary winding (4a, 4b), which is formed by a primary winding conductor which at least partly surrounds the winding axis of the core, and - at least one secondary winding (5a, 5b), which is formed by a secondary winding conductor (6a, 6b), - wherein the secondary winding conductor (6a, 6b) surrounds the primary winding conductor, wherein the secondary winding conductor (6a, 6b) and the primary winding conductor form different winding layers over the winding axis, - wherein the secondary winding (5a, 5b) is formed in one layer, and - wherein a cross section of the secondary winding conductor (6a, 6b) is rectangular in a cross-sectional plane perpendicular to the winding axis, characterized in that - the secondary winding (5a, 5b) is formed as a structured solid material block. - a magnetizable core having a winding axis, - at least one primary winding (4a, 4b), which is formed by a primary winding conductor which at least partly surrounds the winding axis of the core, and - at least one secondary winding (5a, 5b), which is formed by a secondary winding conductor (6a, 6b), - wherein the secondary winding conductor (6a, 6b) surrounds the primary winding conductor, wherein the secondary winding conductor (6a, 6b) and the primary winding conductor form different winding layers over the winding axis, - wherein the secondary winding (5a, 5b) is formed in one layer, and - wherein a cross section of the secondary winding conductor (6a, 6b) is rectangular in a cross-sectional plane perpendicular to the winding axis, - the secondary winding (5a, 5b) is formed as a structured solid material block.
Identification kit for identifying a pharmaceutical vessel comprising a vessel body having an outer circumference and a removable vessel closure, wherein the identification kit comprises at least the following: - a vessel attachment designed as a three-dimensional molded part, - a label for affixing to the outer circumference of a pharmaceutical vessel to be identified, and - an RFID transponder for electronically identifying a pharmaceutical vessel and/or its contents, - wherein the label and/or the RFID transponder are intended and configured to be affixed to and/or conceal at least in part both a circumferential surface of the vessel body formed in accordance with the outer circumference and the circumferential surface of the vessel attachment and/or secure the vessel attachment to the pharmaceutical vessel, wherein the vessel attachment can be mounted and/or positioned in a predefined relative position on the vessel and comprises a circumferential wall having an outer circumferential surface which is intended as an additional labelable and/or electronically identifiable outer wall and/or outer surface, characterized in that the radius, the outer circumference and/or the wall configuration is the same as the radius, the outer circumference and/or the wall configuration of the circumferential surface of a vessel to be identified, so that a flush or aligned transition is formed between the circumferential surface of the vessel attachment and the outer surface of the vessel body if the identification kit is attached to the vessel. - a vessel attachment designed as a three-dimensional molded part, - a label for affixing to the outer circumference of a pharmaceutical vessel to be identified, and - an RFID transponder for electronically identifying a pharmaceutical vessel and/or its contents, - wherein the label and/or the RFID transponder are intended and configured to be affixed to and/or conceal at least in part both a circumferential surface of the vessel body formed in accordance with the outer circumference and the circumferential surface of the vessel attachment and/or secure the vessel attachment to the pharmaceutical vessel, wherein the vessel attachment can be mounted and/or positioned in a predefined relative position on the vessel and comprises a circumferential wall having an outer circumferential surface which is intended as an additional labelable and/or electronically identifiable outer wall and/or outer surface, characterized in that the radius, the outer circumference and/or the wall configuration is the same as the radius, the outer circumference and/or the wall configuration of the circumferential surface of a vessel to be identified, so that a flush or aligned transition is formed between the circumferential surface of the vessel attachment and the outer surface of the vessel body if the identification kit is attached to the vessel.