mhurhangee/ep-ind-claims huggingface dataset:
A reduced pressure treatment system, comprising: a cover structure comprising an outer edge, upper surface, a lower surface and at least one opening; a port member attached to the upper surface of the cover structure and comprising at least one port lumen in communication with the at least one opening of the cover structure; and a semi-solid or flowable adhesive layer attached to the lower surface of the cover structure; tubing comprising an outer wall, a proximal end, a distal end, at least one lumen therebetween, a longitudinal lumen axis, a first dimension transverse to the longitudinal lumen axis and a second dimension transverse to the first dimension and the longitudinal lumen axis; wherein the tubing further comprises at least one side passageway providing communication between at least one lumen of the tubing and the outer wall; and an elastomeric structure sealed to the outer surface of the tubing and covering the at least one side passageway; wherein the elastomeric structure is configured with an interior surface that is spaced a first distance from the outer wall of the tubing when the interior surface is exposed to atmospheric pressure and a second distance less than the first distance when the interior surface is exposed to a reduced pressure. a cover structure comprising an outer edge, upper surface, a lower surface and at least one opening; a port member attached to the upper surface of the cover structure and comprising at least one port lumen in communication with the at least one opening of the cover structure; and a semi-solid or flowable adhesive layer attached to the lower surface of the cover structure; tubing comprising an outer wall, a proximal end, a distal end, at least one lumen therebetween, a longitudinal lumen axis, a first dimension transverse to the longitudinal lumen axis and a second dimension transverse to the first dimension and the longitudinal lumen axis; wherein the tubing further comprises at least one side passageway providing communication between at least one lumen of the tubing and the outer wall; and an elastomeric structure sealed to the outer surface of the tubing and covering the at least one side passageway; wherein the elastomeric structure is configured with an interior surface that is spaced a first distance from the outer wall of the tubing when the interior surface is exposed to atmospheric pressure and a second distance less than the first distance when the interior surface is exposed to a reduced pressure.
A valve assembly, comprising: a valve housing having a valve hole therein, an external port (23, 24) extending from said valve hole; said valve housing being made by additive manufacturing with said valve hole formed by said additive manufacturing; a valve spool slidably installed directly into the valve hole of the valve housing with no sleeves or seals interposed therebetween; wherein said valve housing is modular and constructed to mount together with another valve housing; characterized in that said valve housing has a protruding integrally formed valve fitting also made by additive manufacturing and surrounding said external port (23, 24). a valve housing having a valve hole therein, an external port (23, 24) extending from said valve hole; said valve housing being made by additive manufacturing with said valve hole formed by said additive manufacturing; a valve spool slidably installed directly into the valve hole of the valve housing with no sleeves or seals interposed therebetween; wherein said valve housing is modular and constructed to mount together with another valve housing; characterized in that said valve housing has a protruding integrally formed valve fitting also made by additive manufacturing and surrounding said external port (23, 24).
An electron-beam welded joint manufactured by applying an electron-beam welding to a steel, the steel consisting of, as a composition, by mass%, C: 0.02% to 0.10%, Si: 0.03% to 0.30%, Mn: 1.5% to 2.5%, Ti: 0.005% to 0.015%, N: 0.0020% to 0.0060%, O: 0.0010% to 0.0035%, Mg: 0.0003% to 0.0027%, Ca: 0.0003% to 0.0027%, Nb: 0% to 0.020%, V: 0% to 0.030%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, Cu: 0% to 0.25%, Ni: 0% to 0.50%, B: 0% to 0.0030%, Al: limited to 0.015% or less, P: limited to 0.015% or less, S: limited to 0.010% or less, and a balance consisting of iron and unavoidable impurities, wherein amounts in mass% of Mg and Ca in the composition of the steel satisfy 0.0006% ≤ Mg + Ca ≤ 0.0040%, a total amount in mass% of Cr, Mo, Cu and Ni in the composition of the steel is 0.70 or less, an index value CeEB obtained by substituting the composition of the steel into a following Formula 1 is 0.49% to 0.60%, a C/CeEB, which is a ratio of an amount in mass% of C in the steel relative to the index value CeEB of the steel, is 0.04 to 0.18, a number of oxides having an equivalent circle diameter of 1.0 μm or more is 20 pieces/mm 2 or less at a thickness center portion in a cross-section along a thickness direction of the steel, and a number of oxides containing Mg of 7% or more and having an equivalent circle diameter of 0.05 μm or more and less than 0.5 μm is 1 × 10 3 to 1 × 10 5 pieces/mm 2 at the thickness center portion, the number of the oxides containing Mg of 7% or more and having an equivalent circle diameter of 0.05 μm or more and less than 0.5 μm being measured by using FE-TEM at a magnification of 10000-fold to 1000000-fold CeEB = C + 9 / 40 Mn + 1 / 15 Cu + 1 / 15 Ni + 1 / 5 Cr + 1 / 5 Mo + 1 / 5 V where C, Mn, Cu, Ni, Cr, Mo, and V represent amounts in mass% of each element contained in the composition of the steel. C: 0.02% to 0.10%, Si: 0.03% to 0.30%, Mn: 1.5% to 2.5%, Ti: 0.005% to 0.015%, N: 0.0020% to 0.0060%, O: 0.0010% to 0.0035%, Mg: 0.0003% to 0.0027%, Ca: 0.0003% to 0.0027%, Nb: 0% to 0.020%, V: 0% to 0.030%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, Cu: 0% to 0.25%, Ni: 0% to 0.50%, B: 0% to 0.0030%, Al: limited to 0.015% or less, P: limited to 0.015% or less, S: limited to 0.010% or less, and a balance consisting of iron and unavoidable impurities, wherein
A dual motor input for driving an aircraft rotor, comprising: a common shaft for coupling to a member to be rotationally driven; a first motor rotationally coupled to a first drive shaft, the first drive shaft coupled to the common shaft; and a second motor rotationally coupled to a second drive shaft, the second drive shaft coupled to the common shaft, characterized in that the common shaft is rotationally coupled to an output shaft through a planetary gear set. a common shaft for coupling to a member to be rotationally driven; a first motor rotationally coupled to a first drive shaft, the first drive shaft coupled to the common shaft; and a second motor rotationally coupled to a second drive shaft, the second drive shaft coupled to the common shaft, characterized in that the common shaft is rotationally coupled to an output shaft through a planetary gear set.
A central processing unit resource allocation method, wherein the method comprises: adjusting dynamically, according to a change in the number of virtual machines in an advanced resource pool, the number of allocated physical cores in the advanced resource pool; and adjusting, according to the number of the allocated physical cores in the advanced resource pool, the number of allocated physical cores in a default resource pool, wherein the advanced resource pool and the default resource pool are resource pools that are obtained by dividing physical cores of a central processing unit according to service levels of the resource pools, virtual machines in the default resource pool share computing resources of all the physical cores in the default resource pool, and a virtual machine that runs in the advanced resource pool is allowed to occupy a predetermined percentage of one physical core computing resource; wherein the step of adjusting dynamically comprises: when the number of the virtual machines in the advanced resource pool decreases, determining, according to the number of decreased virtual machines and a service level of the advanced resource pool, a number of physical cores that need to be subtracted from the advanced resource pool; and allocating the number of physical cores that need to be subtracted from the advanced resource pool to the default resource pool. adjusting dynamically, according to a change in the number of virtual machines in an advanced resource pool, the number of allocated physical cores in the advanced resource pool; and adjusting, according to the number of the allocated physical cores in the advanced resource pool, the number of allocated physical cores in a default resource pool, wherein the advanced resource pool and the default resource pool are resource pools that are obtained by dividing physical cores of a central processing unit according to service levels of the resource pools, virtual machines in the default resource pool share computing resources of all the physical cores in the default resource pool, and a virtual machine that runs in the advanced resource pool is allowed to occupy a predetermined percentage of one physical core computing resource; wherein the step of adjusting dynamically comprises: when the number of the virtual machines in the advanced resource pool decreases, determining, according to the number of decreased virtual machines and a service level of the advanced resource pool, a number of physical cores that need to be subtracted from the advanced resource pool; and allocating the number of physical cores that need to be subtracted from the advanced resource pool to the default resource pool. when the number of the virtual machines in the advanced resource pool decreases, determining, according to the number of decreased virtual machines and a service level of the advanced resource pool, a number of physical cores that need to be subtracted from the advanced resource pool; and allocating the number of physical cores that need to be subtracted from the advanced resource pool to the default resource pool.
Ultrasonic system comprising: - generator means of ultrasonic microvibrations; - waveguide means connected to and extending away from the generator means so as to bend at least in part; - an operating element joined to a stationary bending node of the waveguide means, so that the flexural microvibrations are transmitted by the waveguide means to the operating element as alternate torsional or flexural microvibrations; - said generator means comprise at least one ultrasonic transducer (16, 74) arranged coaxially to a prevailing development direction of the waveguide means; and wherein - the distal portion of said waveguide means extends along a direction of development of the waveguide means defining an axis of waveguide means (Z or D); and wherein - said operating element joined to a stationary bending node of the waveguide means extends along a direction defining a secondary or tertiary axis (Y or X); and wherein - said axis of waveguide means (Z or D) and said secondary or tertiary axis (Y or X) are substantially orthogonal and incident to each other and define a single plane (P or S); and wherein - said axis of waveguide means and said secondary or tertiary axis (Y or X) are incident to each other and form an angle between 85 DEG and 125 DEG, preferably 90 DEG; and wherein - the axes (Y or X, Z, D) of the operating element, generator means and waveguide means are coplanar. - generator means of ultrasonic microvibrations; - waveguide means connected to and extending away from the generator means so as to bend at least in part; - an operating element joined to a stationary bending node of the waveguide means, so that the flexural microvibrations are transmitted by the waveguide means to the operating element as alternate torsional or flexural microvibrations; - said generator means comprise at least one ultrasonic transducer (16, 74) arranged coaxially to a prevailing development direction of the waveguide means; - the distal portion of said waveguide means extends along a direction of development of the waveguide means defining an axis of waveguide means (Z or D); and wherein - said operating element joined to a stationary bending node of the waveguide means extends along a direction defining a secondary or tertiary axis (Y or X); and wherein - said axis of waveguide means (Z or D) and said secondary or tertiary axis (Y or X) are substantially orthogonal and incident to each other and define a single plane (P or S); - said axis of waveguide means and said secondary or tertiary axis (Y or X) are incident to each other and form an angle between 85 DEG and 125 DEG, preferably 90 DEG; and wherein - the axes (Y or X, Z, D) of the operating element, generator means and waveguide means are coplanar.
A gel composition for use as a local anaesthetic with short-term and long-term duration in the urethra of a patient wherein the gel composition has an anaesthetic effect of short and long term duration for administration through the urethra, and is characterised in that it comprises a lubricant gel, at least one local short duration anaesthetic composition and at least one local long duration anaesthetic composition, the local long duration anaesthetic composition comprising ropivacaine and/or bupivacaine, the ratio between the w/w percentage of the local long duration and short anaesthetic compositions being such that the effect of the local long duration anaesthetic composition overlaps with the effect of the local short duration anaesthetic composition.
A longitudinal luminaire comprising a cylindrical casing extending along a longitudinal direction, said casing being at least partly transparent, and a lighting device disposed inside the casing, wherein the lighting device and the casing are assembled only by means of a plurality of brackets, wherein the casing has a circular cross-section, each bracket comprising a lug for blocking in rotation the lighting device about the axis of the casing relative to said bracket, characterized in that the lighting device comprises a support extending longitudinally and comprising a pair of first grooves extending longitudinally, the lug of each bracket being engaged in a first groove.
A zoom lens comprising in order from an object side: a first lens unit having a positive refractive power which does not move for varying magnification, a second lens unit having a negative refractive power which moves during varying magnification, a third lens unit having a positive refractive power which moves during varying magnification, and a fourth lens unit having a positive refractive power which does not move for varying magnification; wherein the third lens unit moves toward an image side and then toward the object side when varying magnification from a wide angle end to a telephoto end; and wherein the following relationships are satisfied: - 3.2 < f ⁢ 1 / f ⁢ 2 < - 1.0, - 0.55 < f ⁢ 2 / f ⁢ 3 < - 0.20, and 0.7 < 1 / β ⁢ 3 ⁢ w < 0.5; where f1 is a focal length of the first lens unit, f2 is a focal length of the second lens unit, f3 is a focal length of the third lens unit, and β3w is a lateral magnification of the third lens unit at the wide angle end when a ray enters from infinity. a first lens unit having a positive refractive power which does not move for varying magnification, a second lens unit having a negative refractive power which moves during varying magnification, a third lens unit having a positive refractive power which moves during varying magnification, and a fourth lens unit having a positive refractive power which does not move for varying magnification; wherein the third lens unit moves toward an image side and then toward the object side when varying magnification from a wide angle end to a telephoto end; and wherein the following relationships are satisfied: - 3.2 < f ⁢ 1 / f ⁢ 2 < - 1.0, - 0.55 < f ⁢ 2 / f ⁢ 3 < - 0.20, and 0.7 < 1 / β ⁢ 3 ⁢ w < 0.5; where f1 is a focal length of the first lens unit, f2 is a focal length of the second lens unit, f3 is a focal length of the third lens unit, and β3w is a lateral magnification of the third lens unit at the wide angle end when a ray enters from infinity.
A heat exchanger plate for plate heat exchangers, comprising a heat transfer area, an edge area, which extends around and outside the heat transfer area, and a number of portholes, which extend through the heat exchanger plate and are located inside and in the proximity of the edge area, wherein said porthole is defined by a porthole edge and has a centre, wherein the porthole edge has a first edge portion adjacent to the edge area, and a second edge portion (19") adjacent to the heat transfer area, characterized in that the first edge portion has a corrugation seen from the centre of the porthole, and that the second edge portion (19") has a substantially plane shape seen from the centre of the porthole.
A method performed by a videoconferencing device, the method comprising: maintaining a database comprising multiple records, each record including bit rate information and relating to a particular endpoint identifier; initiating a videoconference call with a target endpoint; identifying one or more records in the database that relate to the endpoint identifier of the target endpoint; identifying one or more records in the database that relate to the endpoint identifier of one or more endpoints located in a common zone with the target endpoint; using bit rate information from the identified records to calculate an initial video bit rate for the videoconference call; and initially transmitting video to the target endpoint at the calculated initial video bit rate. maintaining a database comprising multiple records, each record including bit rate information and relating to a particular endpoint identifier; initiating a videoconference call with a target endpoint; identifying one or more records in the database that relate to the endpoint identifier of the target endpoint; identifying one or more records in the database that relate to the endpoint identifier of one or more endpoints located in a common zone with the target endpoint; using bit rate information from the identified records to calculate an initial video bit rate for the videoconference call; and initially transmitting video to the target endpoint at the calculated initial video bit rate.
A metering device for an agricultural machine for outputting granular solids from at least one storage container to at least one dispensing unit by means of a conveyor system, having a metering housing and at least one inflow opening and at least one discharge opening for the granular solid, wherein the metering housing forms a metering chamber on the inside, where in between metering chamber and the conveyor system a conveyor device rotating about a rotary axis is arranged. characterised in that the conveyor device comprises at least one first rotary slide valve having at least one first opening for controlling the inflow and/or discharge of the granular solid into or out of the conveyor device, wherein the first rotary slide valve comprises a second opening which is substantially located opposite the first opening.
A security device assembly, comprising: a mounting bracket; a security device that is seated and rotatable within the mounting bracket about an axis of orientation; a permanent magnet attached to the mounting bracket; a magnetometer contained within the security device for detecting a magnetic field generated by the permanent magnet; and a controller that determines changes in the magnetic field detected by the magnetometer that are indicative of a rotation of the security device within the mounting bracket, wherein in response to the determined changes in the magnetic field being beyond an allowed range, the controller determines that the rotation of the security device within the mounting bracket is associated with a tampering with the security device. a mounting bracket; a security device that is seated and rotatable within the mounting bracket about an axis of orientation; a permanent magnet attached to the mounting bracket; a magnetometer contained within the security device for detecting a magnetic field generated by the permanent magnet; and a controller that determines changes in the magnetic field detected by the magnetometer that are indicative of a rotation of the security device within the mounting bracket, wherein in response to the determined changes in the magnetic field being beyond an allowed range, the controller determines that the rotation of the security device within the mounting bracket is associated with a tampering with the security device.
An imaging system for generating a display including an intravascular device overlayed on a vessel roadmap, the imaging system comprising: a data receiver configured to receive live fluoroscopic imaging including an intravascular device; an image processing system configured to: receive a vessel roadmap; and generate a display including the vessel roadmap and the intravascular device overlayed on the vessel roadmap based on the live fluoroscopic imaging; determine panning data representing a selected region of the vessel roadmap that is panned to match panning of the field of view of the live fluoroscopic images, wherein the panning data is based on a comparison between biological reference markers in the vessel roadmap and the live fluoroscopic imaging; and pan the display of the vessel roadmap based on the panning data corresponding to panning of a field of view of the live fluoroscopic imaging so that the intravascular device is overlayed at a correct location on the vessel roadmap. a data receiver configured to receive live fluoroscopic imaging including an intravascular device; an image processing system configured to: receive a vessel roadmap; and generate a display including the vessel roadmap and the intravascular device overlayed on the vessel roadmap based on the live fluoroscopic imaging; determine panning data representing a selected region of the vessel roadmap that is panned to match panning of the field of view of the live fluoroscopic images, wherein the panning data is based on a comparison between biological reference markers in the vessel roadmap and the live fluoroscopic imaging; and pan the display of the vessel roadmap based on the panning data corresponding to panning of a field of view of the live fluoroscopic imaging so that the intravascular device is overlayed at a correct location on the vessel roadmap. receive a vessel roadmap; and generate a display including the vessel roadmap and the intravascular device overlayed on the vessel roadmap based on the live fluoroscopic imaging; determine panning data representing a selected region of the vessel roadmap that is panned to match panning of the field of view of the live fluoroscopic images, wherein the panning data is based on a comparison between biological reference markers in the vessel roadmap and the live fluoroscopic imaging; and pan the display of the vessel roadmap based on the panning data corresponding to panning of a field of view of the live fluoroscopic imaging so that the intravascular device is overlayed at a correct location on the vessel roadmap.