mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an aerial micromodule cable with excess length of an optical core, said cable comprising a cable jacket, an inner wall of said cable jacket defining a cable cavity in which the optical core is arranged, said cable having two rigid strength members (4a, 4b) embedded in the wall of said cable jacket; said method comprises: • Extruding said cable jacket around said optical core, to provide said cable, said optical core having no overlength relative to the cable jacket; • guiding the aerial micromodule cable over the outer circumference of a coupling wheel, said coupling wheel being the first wheel that receives the cable after said extruding; wherein a first plane intersecting the centre of gravity of the cable cavity is parallel to a second plane intersecting the two rigid strength members (4a, 4b) in the cable jacket, said first and second planes being offset from each other, wherein said centre of gravity of the cable cavity is the centroid or geometric centre of the cross section of the empty cable cavity, and wherein, during said guiding, the two rigid strength members (4a, 4b) are positioned closer to the outer circumference of the coupling wheel than the first plane so as to cause the optical core to have a core excess length of at least 0.05% relative to the length of the cable jacket. • Extruding said cable jacket around said optical core, to provide said cable, said optical core having no overlength relative to the cable jacket; • guiding the aerial micromodule cable over the outer circumference of a coupling wheel, said coupling wheel being the first wheel that receives the cable after said extruding; wherein a first plane intersecting the centre of gravity of the cable cavity is parallel to a second plane intersecting the two rigid strength members (4a, 4b) in the cable jacket, said first and second planes being offset from each other, wherein said centre of gravity of the cable cavity is the centroid or geometric centre of the cross section of the empty cable cavity, and wherein, during said guiding, the two rigid strength members (4a, 4b) are positioned closer to the outer circumference of the coupling wheel than the first plane so as to cause the optical core to have a core excess length of at least 0.05% relative to the length of the cable jacket.
The logically controlled computer network for logically connecting global computer users and mobile users and providing centralized features and services to the computer users, comprising the architecture of: • global operating systems (24, 26), • regional operating systems, and • local operating systems, wherein local operating system is designed to logically network computer users in the area, and wherein the routing within the network is fixed so that: • any two global operating systems (24, 26) can communicate with each other directly in the country or globally, • any global operating system (24, 26) can communicate with every regional operating system in its country; • any two regional operating systems within the country can communicate with each other directly, • any regional operating system can communicate with all local operating systems in the region, and • any two local operating systems can communicate with each other directly in the region, wherein, for global transmission of data, the sender's local operating system is configured to only determine the routing within the sender's country, and the global operating system in the receiver's country is configured to determine the fixed routing in the receiver's country, characterized in that the sender's local operating system and the global operating system are configured to include the sender's address, the receiver's address and all the addresses for the routing in the headers of data packets during the encapsulation process, and the sender's local operating system and the global operating system in the receiver's country are configured to determine the fixed routing per session of application, rather than per packet. • global operating systems (24, 26), • regional operating systems, and • local operating systems, • any two global operating systems (24, 26) can communicate with each other directly in the country or globally, • any global operating system (24, 26) can communicate with every regional operating system in its country; • any two regional operating systems within the country can communicate with each other directly, • any regional operating system can communicate with all local operating systems in the region, and • any two local operating systems can communicate with each other directly in the region,
A method for monitoring and controlling a machine-to-machine, M2M, terminal device based on a policy, comprising: obtaining, by an M2M platform, a state monitoring and control policy, storing, by the M2M platform, a state control policy of the state monitoring and control policy, and sending, by the M2M platform, a state monitoring policy included in the state monitoring and control policy to the M2M terminal device; receiving, by the M2M platform, a state parameter of the M2M terminal device, wherein the state parameter is monitored and reported by the M2M terminal device, and in response to receiving the reported state parameter, triggering, by the M2M platform, a state control operation according to the state parameter and the state control policy, wherein the state monitoring policy comprises: a condition value needed to be satisfied by the M2M terminal device executing collection and reporting operations of the state parameter, and an identifier of the state parameter corresponding to the condition value; and the state control policy comprises: a judgment logic of triggering the state control operation by the M2M platform based on the state parameter reported by the M2M terminal device. obtaining, by an M2M platform, a state monitoring and control policy, storing, by the M2M platform, a state control policy of the state monitoring and control policy, and sending, by the M2M platform, a state monitoring policy included in the state monitoring and control policy to the M2M terminal device; receiving, by the M2M platform, a state parameter of the M2M terminal device, wherein the state parameter is monitored and reported by the M2M terminal device, and in response to receiving the reported state parameter, triggering, by the M2M platform, a state control operation according to the state parameter and the state control policy, wherein the state monitoring policy comprises: a condition value needed to be satisfied by the M2M terminal device executing collection and reporting operations of the state parameter, and an identifier of the state parameter corresponding to the condition value; and the state control policy comprises: a judgment logic of triggering the state control operation by the M2M platform based on the state parameter reported by the M2M terminal device.
A method of supporting a user's cranium comprising: adjusting a position of a secondary support along a longitudinal axis of the user's spine; adjusting a position of a primary support along said longitudinal axis relative to said position of said secondary support independent of said adjusting said position of said secondary support; directly supporting at least a portion of a user's T1 -T6 vertebrae with said primary support surface; wherein a spine of said user defines a longitudinal direction when supported by said primary support; and directly supporting a junction at or between said user's occipital bone and C1 vertebrae with a secondary support surface spaced from said primary support along a longitudinal axis extending in said longitudinal direction; wherein the primary support includes a rigid plastic base layer extending along and defining a central region, a wider flexible intermediate plastic layer connected to the rigid plastic base layer and extending laterally outwardly to define side regions, and a foam interface layer coupled to the intermediate plastic layer; wherein the side regions of the primary support are more flexible than the central region of the primary support. adjusting a position of a secondary support along a longitudinal axis of the user's spine; adjusting a position of a primary support along said longitudinal axis relative to said position of said secondary support independent of said adjusting said position of said secondary support; directly supporting at least a portion of a user's T1 -T6 vertebrae with said primary support surface; wherein a spine of said user defines a longitudinal direction when supported by said primary support; and directly supporting a junction at or between said user's occipital bone and C1 vertebrae with a secondary support surface spaced from said primary support along a longitudinal axis extending in said longitudinal direction; wherein the primary support includes a rigid plastic base layer extending along and defining a central region, a wider flexible intermediate plastic layer connected to the rigid plastic base layer and extending laterally outwardly to define side regions, and a foam interface layer coupled to the intermediate plastic layer; wherein the side regions of the primary support are more flexible than the central region of the primary support.
A process of purifying a polycarbonate from a feed comprising an interfacial polymerization product mixture, wherein the product mixture comprises an aqueous phase and an organic phase comprising an organic solvent, the polycarbonate, a catalyst, and ions, the process comprising: separating the aqueous phase and the organic phase while subjecting the product mixture to a shear rate of less than 150,000 S -1 to form a separated organic phase and a separated aqueous phase; extracting the catalyst from the separated organic phase with an acid stream while subjecting the separated organic phase and the acid stream to a shear rate of less than 150,000 S -1; and extracting the ions from the separated organic phase with a water stream while subjecting the separated organic phase and the water stream to a shear rate of less than 150,000 S -1; to form a purified organic phase comprising a purified polycarbonate. separating the aqueous phase and the organic phase while subjecting the product mixture to a shear rate of less than 150,000 S -1 to form a separated organic phase and a separated aqueous phase; extracting the catalyst from the separated organic phase with an acid stream while subjecting the separated organic phase and the acid stream to a shear rate of less than 150,000 S -1; and extracting the ions from the separated organic phase with a water stream while subjecting the separated organic phase and the water stream to a shear rate of less than 150,000 S -1; to form a purified organic phase comprising a purified polycarbonate.
A lipid-based particle liquid composition, comprising: nanoparticles comprising: cannabidiol at a weight percent in the composition ranging from 1% to 10%; a phosphatidylcholine at a weight percent in the composition ranging from 2.5% to 15%; a sterol at a weight percent in the composition ranging from 0.5% to 5%; and a medium chain triglyceride at a weight percent in the composition ranging from 2.5% to 15%; and water at a weight percent in the composition ranging from 60% to about 80%; wherein the nanoparticles comprise liposomes and oil-in-water nano-emulsion particles; wherein the nanoparticles have a Z-average size ranging from about 75 nm to about 200 nm as measured by dynamic light scattering; and wherein, upon storage at 25 °C and 60% relative humidity for a period of one month, the Z-average size of the nanoparticles changes by less than about 20%. cannabidiol at a weight percent in the composition ranging from 1% to 10%; a phosphatidylcholine at a weight percent in the composition ranging from 2.5% to 15%; a sterol at a weight percent in the composition ranging from 0.5% to 5%; and a medium chain triglyceride at a weight percent in the composition ranging from 2.5% to 15%; and water at a weight percent in the composition ranging from 60% to about 80%; wherein the nanoparticles comprise liposomes and oil-in-water nano-emulsion particles; wherein the nanoparticles have a Z-average size ranging from about 75 nm to about 200 nm as measured by dynamic light scattering; and wherein, upon storage at 25 °C and 60% relative humidity for a period of one month, the Z-average size of the nanoparticles changes by less than about 20%.
An anastomotic connector comprising: a connector body having a first end engageable into a first vessel, the first end being provided with teeth on its outer surface, a first locking sleeve engageable around the first end, the first locking sleeve surrounding the teeth in a locked position, in order to impede relative movement between the first vessel and the connector body, wherein the first locking sleeve is provided with longitudinal ribs on its inner surface, the ribs being spaced from each other in a circumferential direction of the first locking sleeve, and characterised in that the ribs are configured to be fitted in between the teeth when the first locking sleeve is in the locked position. a connector body having a first end engageable into a first vessel, the first end being provided with teeth on its outer surface, a first locking sleeve engageable around the first end, the first locking sleeve surrounding the teeth in a locked position, in order to impede relative movement between the first vessel and the connector body, wherein the first locking sleeve is provided with longitudinal ribs on its inner surface, the ribs being spaced from each other in a circumferential direction of the first locking sleeve, and characterised in that the ribs are configured to be fitted in between the teeth when the first locking sleeve is in the locked position.
A circuit arrangement having at least one LED assembly and an operating device for providing a supply current (I BALLAST) for the LEDs of the LED assembly, wherein the LED assembly is assigned an identification element in the form of a current sink, which is connected to the operating device via a parallel feedback circuit, wherein the operating device is designed to provide a suitable supply current for the LEDs on the basis of a current flow (I FEEDBACK) produced via the feedback circuit, and characterized in that the LED assembly is assigned a protective mechanism (30, 40), which in the event of a detected error condition bridges the LED assembly or interrupts a current flow through the LED assembly, wherein the protective mechanism exerts influence on the associated current sink in the same way.
A medical system for detecting amyloid brain plaque, said medical system comprising: at least one processor programmed to: receive a positron emission tomography image of a brain, the PET image generated from a radiotracer binding to amyloid brain plaque; generate a cortical profile from the PET image, the cortical profile describing cortical tracer uptake to varying projection depths inside the cortex of the brain; and at least one of: 1) quantitatively assess the PET image using the cortical profile; and 2) display at least a portion of the cortical profile; characterized in that the at least one processor is further programmed to: generate cortical surface projections at the varying projection depths from the PET image, wherein each of the cortical surface projections is a projection of a cortical tracer uptake value between a projection depth to the cortex surface of the brain, and wherein the cortical profile is generated from the cortical surface projections, the projections being a statistic regarding the uptake values along a ray spanning between the projected point on the cortex surface and its corresponding point at the given projection depth. at least one processor programmed to: receive a positron emission tomography image of a brain, the PET image generated from a radiotracer binding to amyloid brain plaque; generate a cortical profile from the PET image, the cortical profile describing cortical tracer uptake to varying projection depths inside the cortex of the brain; and at least one of: 1) quantitatively assess the PET image using the cortical profile; and 2) display at least a portion of the cortical profile; receive a positron emission tomography image of a brain, the PET image generated from a radiotracer binding to amyloid brain plaque; generate a cortical profile from the PET image, the cortical profile describing cortical tracer uptake to varying projection depths inside the cortex of the brain; and at least one of: 1) quantitatively assess the PET image using the cortical profile; and 2) display at least a portion of the cortical profile; characterized in that the at least one processor is further programmed to: generate cortical surface projections at the varying projection depths from the PET image, wherein each of the cortical surface projections is a projection of a cortical tracer uptake value between a projection depth to the cortex surface of the brain, and wherein the cortical profile is generated from the cortical surface projections, the projections being a statistic regarding the uptake values along a ray spanning between the projected point on the cortex surface and its corresponding point at the given projection depth.
Shower tray, comprising: - a base element provided with a perimeter edge (1.1) from which an inclined surface (1.2) projects towards a drainage opening (1.3), - furring strips protruding from the inclined surface (1.2), and - a user support surface formed by floor tiles (3.1), where, - upper faces (6.1) of the furring strips form a horizontal base surface of the floor tiles (3.1), - first ends (3.11) of the floor tiles (3.1) are secured on at least one transverse band or strip, - the transverse band or strip comprises a swivelling end (7.1) and a fastening end (7.2) of the first end (3.11) of the floor tile (3.1), and - a longitudinal recess is conformed in respective recesses (6.11) of the upper faces (6.1) of the furring strips and/or in the perimeter edge (1.1) of the base element, the longitudinal recess is adapted to accommodate the swivelling end (7.1) of the transverse band or strip, characterised in that the swivelling end (7.1) of the transverse band or strip comprises a right-angled profile corner (7.11), said right-angled profile corner (7.11) being adapted to slide on the longitudinal recess, when removing floor tiles (3.1) from their horizontal base surface. - a base element provided with a perimeter edge (1.1) from which an inclined surface (1.2) projects towards a drainage opening (1.3), - furring strips protruding from the inclined surface (1.2), and - a user support surface formed by floor tiles (3.1), - upper faces (6.1) of the furring strips form a horizontal base surface of the floor tiles (3.1), - first ends (3.11) of the floor tiles (3.1) are secured on at least one transverse band or strip, - the transverse band or strip comprises a swivelling end (7.1) and a fastening end (7.2) of the first end (3.11) of the floor tile (3.1), and - a longitudinal recess is conformed in respective recesses (6.11) of the upper faces (6.1) of the furring strips and/or in the perimeter edge (1.1) of the base element, the longitudinal recess is adapted to accommodate the swivelling end (7.1) of the transverse band or strip,
A lithium-ion secondary battery having a cylindrical shape with an outer diameter R of 3 to 6.5 mm and comprising: a bottom-closed cylindrical battery case having an opening portion; a wound-type electrode assembly and a non-aqueous electrolyte housed in the battery case; and a sealing plate sealing the opening portion, the wound-type electrode assembly including: a positive electrode; a negative electrode; and a separator interposed between the positive electrode and the negative electrode, characterized in that the lithium-ion secondary battery has: a height H of 15 to 65 mm; an amount of the non-aqueous electrolyte per discharge capacity of 1 mAh of 1.7 to 2.8 μL; a capacity density per volume of 60 to 110 mAh/cm 3; and a packing ratio of 71 to 85%. a bottom-closed cylindrical battery case having an opening portion; a wound-type electrode assembly and a non-aqueous electrolyte housed in the battery case; and a sealing plate sealing the opening portion, the wound-type electrode assembly including: a positive electrode; a negative electrode; and a separator interposed between the positive electrode and the negative electrode, a positive electrode; a negative electrode; and a separator interposed between the positive electrode and the negative electrode, characterized in that the lithium-ion secondary battery has: a height H of 15 to 65 mm; an amount of the non-aqueous electrolyte per discharge capacity of 1 mAh of 1.7 to 2.8 μL; a capacity density per volume of 60 to 110 mAh/cm 3; and a packing ratio of 71 to 85%. a height H of 15 to 65 mm; an amount of the non-aqueous electrolyte per discharge capacity of 1 mAh of 1.7 to 2.8 μL; a capacity density per volume of 60 to 110 mAh/cm 3; and a packing ratio of 71 to 85%.
A detection apparatus for testing optical performance of a diffractive optical element suitable for use in an ultraviolet lithography machine comprising a visible wavelength laser and the following optical units placed along the laser direction and along the optical axis of the laser in the following sequence: a beam expander lens group, a beam splitter, a first far field imaging lens, an adjustable aperture or a CCD image sensor, a second far field imaging lens and a second energy sensor, wherein said beam splitter has an angle of 45° to said optical axis, and at the reflection direction of the beam splitter there is a first energy sensor, wherein the diffractive optical element is located at the object focal plane of said first far field imaging lens, the object and image focal lengths of both said first far field imaging lens and said second far field imaging lens are f, the distance between said first far field imaging lens and said second far field imaging lens is 2f, and said second energy sensor is located at the image focal plane of said second far field imaging lens, wherein at the common focal plane of said first far field imaging lens and said second far field imaging lens, there is said adjustable aperture or said CCD image sensor, and in the middle of photosensitive surface of said CCD image sensor,there is a central obscuration.
Lightweight panel having a fitting for fixing the lightweight panel consisting of two cover panels (5, 6) and an interposed middle layer to a second lightweight panel, a wall, a stationary wall panel or the like, which is perpendicular thereto, wherein the fitting has a housing, which can be fixed by adhesives between the cover panels (5, 6), with channels for distributing adhesive and an insertion channel for a fastening pin, wherein the channels for the adhesive open on the one hand into at least one externally accessible filling opening and on the other hand into peripheral regions respectively abutting the cover panels (5, 6) of the lightweight panel and having recesses forming receiving chambers for adhesives, characterized in that the housing is inserted into a bore of the lightweight panel, which at least slightly cuts into one of the cover panels (5, 6), and that the receiving chambers of the housing are directly terminated by an incised section towards the respective cover panel (5, 6) or by a cover panel (5, 6), and at both sides of the housing in each case a pot having a smaller diameter than the housing and intersecting with the housing is integrally attached, and that the lateral pots engage in correspondingly dimensioned holes of the lightweight panel.