mhurhangee/ep-ind-claims huggingface dataset:
A reactor for producing a sulfur-infused carbonaceous material as a cathode material for use in a Li-S battery, comprising: a reactor body configured to withstand a pressure from 101.3 kPa (1 atm) to 15200 kPa (150 atm); and an inner sulfur-resistant layer at the inner surface of the reactor body, wherein the inner layer is inert to sulfur vapor at a temperature from 450 °C to 1000 °C wherein either: (i) the reactor body and the inner layer are made of the same material, wherein the material is selected from the group consisting of titanium, molybdenum, tungsten and a combination thereof; or (ii) the reactor body and the inner layer are made of different materials, wherein the reactor body is made of a material selected from the groups consisting of titanium, molybdenum, tungsten, and a combination thereof and wherein the inner layer is made of a material selected from the group consisting of titanium, molybdenum, tungsten, alumina, silicon carbide, SiO 2, and a combination thereof. a reactor body configured to withstand a pressure from 101.3 kPa (1 atm) to 15200 kPa (150 atm); and an inner sulfur-resistant layer at the inner surface of the reactor body, wherein the inner layer is inert to sulfur vapor at a temperature from 450 °C to 1000 °C wherein either: (i) the reactor body and the inner layer are made of the same material, wherein the material is selected from the group consisting of titanium, molybdenum, tungsten and a combination thereof; or (ii) the reactor body and the inner layer are made of different materials, wherein the reactor body is made of a material selected from the groups consisting of titanium, molybdenum, tungsten, and a combination thereof and wherein the inner layer is made of a material selected from the group consisting of titanium, molybdenum, tungsten, alumina, silicon carbide, SiO 2, and a combination thereof. (i) the reactor body and the inner layer are made of the same material, wherein the material is selected from the group consisting of titanium, molybdenum, tungsten and a combination thereof; or (ii) the reactor body and the inner layer are made of different materials, wherein the reactor body is made of a material selected from the groups consisting of titanium, molybdenum, tungsten, and a combination thereof and wherein the inner layer is made of a material selected from the group consisting of titanium, molybdenum, tungsten, alumina, silicon carbide, SiO 2, and a combination thereof.
A quartz crystal microbalance, QCM, sensor apparatus comprising: a sensor holder having a compartment for receiving a QCM sensor, a plurality of sample fluid containers, a fluid selector unit for selectively placing one of said sample fluid containers in fluid connection with a measurement cell formed above the received QCM sensor, said fluid selector unit having: a plurality of inlet ports, each inlet port in fluid connection with a sample fluid container, a sensor outlet configured to be in fluid connection with said sensor, and a valve arrangement for selectively connecting one of said inlets to said outlet, and a thermoelectrical element arranged in thermal connection with the sensor holder, wherein said fluid selector unit is sandwiched between the fluid sample containers and the sensor holder, and wherein that the sensor apparatus further comprises a thermally insulating housing comprising another compartment enclosing the sample fluid containers, fluid selector unit and sensor holder, an interior of the other compartment being configured to have a substantially homogeneous temperature. a sensor holder having a compartment for receiving a QCM sensor, a plurality of sample fluid containers, a fluid selector unit for selectively placing one of said sample fluid containers in fluid connection with a measurement cell formed above the received QCM sensor, said fluid selector unit having: a plurality of inlet ports, each inlet port in fluid connection with a sample fluid container, a sensor outlet configured to be in fluid connection with said sensor, and a valve arrangement for selectively connecting one of said inlets to said outlet, and a plurality of inlet ports, each inlet port in fluid connection with a sample fluid container, a sensor outlet configured to be in fluid connection with said sensor, and a valve arrangement for selectively connecting one of said inlets to said outlet, and a thermoelectrical element arranged in thermal connection with the sensor holder, wherein said fluid selector unit is sandwiched between the fluid sample containers and the sensor holder, and wherein that the sensor apparatus further comprises a thermally insulating housing comprising another compartment enclosing the sample fluid containers, fluid selector unit and sensor holder, an interior of the other compartment being configured to have a substantially homogeneous temperature.
A build plate-clamping assembly, comprising: a work station having a build plate-receiving surface; and a lock-pin extending from the build plate-receiving surface of the work station, the lock-pin comprising: a hollow pin body; a piston disposed within the hollow pin body, the piston axially movable from a retracted position to an actuated position; and a plurality of detents, the plurality of detents radially extensible through respective ones of a plurality of detent-apertures in the hollow pin body responsive to the piston having been axially moved to the actuated position; wherein the lock-pin comprises a flushing channel defining a pathway for a fluid to flow from a fluid source and discharge from the hollow pin body so as to flush debris from the lock-pin. a work station having a build plate-receiving surface; and a lock-pin extending from the build plate-receiving surface of the work station, the lock-pin comprising: a hollow pin body; a piston disposed within the hollow pin body, the piston axially movable from a retracted position to an actuated position; and a plurality of detents, the plurality of detents radially extensible through respective ones of a plurality of detent-apertures in the hollow pin body responsive to the piston having been axially moved to the actuated position; wherein the lock-pin comprises a flushing channel defining a pathway for a fluid to flow from a fluid source and discharge from the hollow pin body so as to flush debris from the lock-pin. a hollow pin body; a piston disposed within the hollow pin body, the piston axially movable from a retracted position to an actuated position; and a plurality of detents, the plurality of detents radially extensible through respective ones of a plurality of detent-apertures in the hollow pin body responsive to the piston having been axially moved to the actuated position; wherein the lock-pin comprises a flushing channel defining a pathway for a fluid to flow from a fluid source and discharge from the hollow pin body so as to flush debris from the lock-pin.
An organic light emitting device comprising (i) a plurality of regions, each of said regions comprising an organic emissive layer adapted to emit a different spectrum of light; with (i.a) a first region having an organic emissive layer adapted to emit a first spectrum of light; (i.b) a second region having an organic emissive layer adapted to emit a second spectrum of light; and (i.c) a third region having an organic emissive layer adapted to emit a third spectrum of light; (ii) the light-emitting regions are in the form of stripes having an aspect ratio of at least 4 and a width greater than 0.5 mm; (iii) the regions being adapted to provide the same or a different drive current for each region; and (iv) the device emitting light having a CRI greater than 80. (i) a plurality of regions, each of said regions comprising an organic emissive layer adapted to emit a different spectrum of light; with (i.a) a first region having an organic emissive layer adapted to emit a first spectrum of light; (i.b) a second region having an organic emissive layer adapted to emit a second spectrum of light; and (i.c) a third region having an organic emissive layer adapted to emit a third spectrum of light; (i.a) a first region having an organic emissive layer adapted to emit a first spectrum of light; (i.b) a second region having an organic emissive layer adapted to emit a second spectrum of light; and (i.c) a third region having an organic emissive layer adapted to emit a third spectrum of light; (ii) the light-emitting regions are in the form of stripes having an aspect ratio of at least 4 and a width greater than 0.5 mm; (iii) the regions being adapted to provide the same or a different drive current for each region; and (iv) the device emitting light having a CRI greater than 80.
A laser therapy apparatus comprising: a cap body shell; a printed circuit board disposed within the cap body shell, wherein the printed circuit board comprises a plurality of cuts spaced to facilitate bending the printed circuit board into a dome shape, and wherein the printed circuit board is bent into a dome shape; a power supply; a controller; a first plurality of light sources electrically coupled to the printed circuit board and powered by the power supply controlled by the controller, wherein the first plurality of light sources comprises at least one laser diode or at least one light emitting diode, and characterised by at least two photodiode proximity sensors disposed within the cap body shell and electronically connected to the controller, wherein the controller is configured such that the plurality of light sources will only light if both photodiode proximity sensors are within a predetermined distance from a scalp to be treated, and wherein the plurality of light sources will turn off if either of the at least two photodiode proximity sensors is moved more than the predetermined distance away from the scalp to be treated. a cap body shell; a printed circuit board disposed within the cap body shell, wherein the printed circuit board comprises a plurality of cuts spaced to facilitate bending the printed circuit board into a dome shape, and wherein the printed circuit board is bent into a dome shape; a power supply; a controller; a first plurality of light sources electrically coupled to the printed circuit board and powered by the power supply controlled by the controller, wherein the first plurality of light sources comprises at least one laser diode or at least one light emitting diode, and
An indexable cutting insert (20, 120), comprising: an upper surface (22, 122) and an opposing lower surface (24, 124), with a peripheral side surface (26, 126) extending therebetween; a clamping through bore (32, 132) extending between and opening out to the upper surface (22, 122) and the lower surface (24, 124), the clamping through bore (32, 132) having an insert axis A, B around which the cutting insert (20, 120) is indexable; at least two major cutting edges (46, 146; 48, 148) formed on an upper peripheral edge (28, 128) at the intersection of the upper surface (22, 122) and the peripheral side surface (26, 126), having at least two index planes P1, P2 containing the insert axis A, B and the at least two major cutting edges (46, 146; 48, 148); at least two rake points E, F where the at least two index planes P1, P2 intersect the at least two major cutting edges (46, 146; 48, 148); and at least two insert axial rake angles α1, α2 between lines tangential to the at least two major cutting edges (46, 146; 48, 148) at the at least two rake points E, F and a lower plane P, P' defined by the lower surface (24, 124), wherein an index angles ψ equal to 360°/n is present between the at least two index planes P1, P2, where n is the number of major cutting edges (46, 146; 48, 148), characterized in that at least two of the at least two insert axial rake angles α1, α2 are different. an upper surface (22, 122) and an opposing lower surface (24, 124), with a peripheral side surface (26, 126) extending therebetween; a clamping through bore (32, 132) extending between and opening out to the upper surface (22, 122) and the lower surface (24, 124), the clamping through bore (32, 132) having an insert axis A, B around which the cutting insert (20, 120) is indexable; at least two major cutting edges (46, 146; 48, 148) formed on an upper peripheral edge (28, 128) at the intersection of the upper surface (22, 122) and the peripheral side surface (26, 126), having at least two index planes P1, P2 containing the insert axis A, B and the at least two major cutting edges (46, 146; 48, 148); at least two rake points E, F where the at least two index planes P1, P2 intersect the at least two major cutting edges (46, 146; 48, 148); and at least two insert axial rake angles α1, α2 between lines tangential to the at least two major cutting edges (46, 146; 48, 148) at the at least two rake points E, F and a lower plane P, P' defined by the lower surface (24, 124), wherein an index angles ψ equal to 360°/n is present between the at least two index planes P1, P2, where n is the number of major cutting edges (46, 146; 48, 148), characterized in that at least two of the at least two insert axial rake angles α1, α2 are different.
A calibration filter grating for being movably arranged between an X-ray source grating and an analyzer grating of an interferometer unit of a slit-scanning system of a phase contrast imaging arrangement, said calibration filter comprising: - a first plurality of filter segments comprising a filter material; and - a second plurality of opening segments; wherein the filter segments and the opening segments are arranged alternating as a filter pattern for alignment with a slit pattern of the slit-scanning system; and wherein the filter material is made from a material with structural elements comprising structural parameters in the micrometer region for transforming coherent X-ray into incoherent X-ray. - a first plurality of filter segments comprising a filter material; and - a second plurality of opening segments;
An embedded system comprising a direct memory controller comprising a plurality of channels, wherein a plurality of channel arbitration schemes are programmable, wherein the DMA controller is programmable to split a block data transfer (210; 200; 220) on a specified channel into a plurality of separate data transfers (210a..e; 200a..c; 220a..b), wherein a selected channel arbitration scheme is applied to each separate data transfer (210a..e; 200a..c; 220a..b), wherein a data transfer on a specified channel can be interrupted between separate data transfers of the data transfer, wherein a block data transfer is split into the plurality of separate data transfers (210a..e; 200a..c; 220a..b) upon setting of a bit in a control register, and wherein each separate data transfer (210a..e; 200a..c; 220a..b) comprises a programmable maximum of data bytes.
An image sensor, comprising: a light source conversion unit (4,104) that includes a plurality of light-receiving devices and converts incident light into an electric signal; a plurality of lenses (5,105) that are provided in an immediately-above area of the light-receiving devices and collect light toward a light-receiving unit of the light-receiving devices positioned right below the lenses; an insulation layer that is formed of an optically-transparent material and formed above the lenses wherein, when a refractive index of the insulation layer is represented by n and a distance between the sample and the lens is represented by L, a focal distance f of the lens is shorter than an optical path length (= n ∗ L) between the sample and the lens; and detection areas that are provided on a surface of the insulation layer while being apart from one another for each of the light-receiving devices, a center of each of the detection areas being positioned on an extended line connecting a center of the light-receiving unit of each of the light-receiving devices and a center of the lens provided right above each of the light-receiving devices, a sample as a detection target being fixed to at least the detection areas. a light source conversion unit (4,104) that includes a plurality of light-receiving devices and converts incident light into an electric signal; a plurality of lenses (5,105) that are provided in an immediately-above area of the light-receiving devices and collect light toward a light-receiving unit of the light-receiving devices positioned right below the lenses; an insulation layer that is formed of an optically-transparent material and formed above the lenses wherein, when a refractive index of the insulation layer is represented by n and a distance between the sample and the lens is represented by L, a focal distance f of the lens is shorter than an optical path length (= n ∗ L) between the sample and the lens; and detection areas that are provided on a surface of the insulation layer while being apart from one another for each of the light-receiving devices, a center of each of the detection areas being positioned on an extended line connecting a center of the light-receiving unit of each of the light-receiving devices and a center of the lens provided right above each of the light-receiving devices, a sample as a detection target being fixed to at least the detection areas.
A conductive composition comprising a conductive metal powder and an epoxy resin component, wherein the conductive metal powder comprises a metal flake and the epoxy resin component comprises a polyfunctional epoxy resin having three or more epoxy groups, and when the average particle diameter of the metal flake is taken as A (μm) and the BET specific surface area thereof is taken as B (m 2 /g), the value of A × B 2 satisfies 5.5 to 18.
A mammalian taste papillae cell, taste cell line or taste cell membrane thereof, wherein said cell, cell line or cell membrane expresses an olfactory receptor operably linked to a reporting agent or expresses a heterologous olfactory receptor.
An anti-tumor plant-medicament sustained-release tablet of elemene, characterized in that said sustained-release tablet of elemene comprises an elemene as an active component and is prepared by formulation of the elemene, a sustained-release agent, a bulking agent, a disintegrating agent, a binder and a lubricant, each component above-mentioned being in the following weight composition: elemene 10%-15% sustained-release agent 3%-15% bulking agent 45%-70% disintegrating agent 3%-8% binder 1%-10% lubricant 1%-8%, said sustained-release agent is selected from the group consisting of hydroxypropyl methyl cellulose, polyvinyl pyrollidone, ethylcellulose, methyl cellulose, hydroxyethyl cellulose, sodium carboxymethyl cellulose and any combination of thereof; said bulking agent is selected from the group consisting of microcrystalline cellulose, β-cyclodextrin, lactose, calcium sulphate, compressible starch and any combination thereof; said disintegrating agent is sodium carboxymethyl starch; said binder is selected from one of the following: aqueous solution of polyvinyl pyrollidone with a mass concentration of 1%-10%, ethanolic solution of polyvinyl pyrollidone with a mass concentration of 1%-10%, aqueous solution of ethylcellulose with a mass concentration of 1%-10%, ethanolic solution of ethylcellulose with a mass concentration of 1%-10%, aqueous solution of hydroxypropyl methyl cellulose with a mass concentration of 1%-10%, and aqueous solution of starch with a mass concentration of 1%-10%; said lubricant is selected from one of the following: magnesium stearate, colloidal silicon dioxide, and talc.
A dental treatment appliance comprising a dental treatment system for delivering a treatment to the oral cavity of a user, the dental treatment system comprising detecting means for transmitting a pulsed signal towards the oral cavity and for receiving a signal returned from the oral cavity, characterized in that the dental treatment appliance comprises a controller for actuating the treatment of the oral cavity of the user depending on a signal received from the detecting means and the detecting means is arranged to transmit a signal towards the oral cavity at the same frequency at which the controller is arranged to sample the signal returned from the oral cavity.
Element comprising at least two components movable with respect to one another, between the surfaces of which is present a film formed by a lubricant oil composition, characterized in that the surface of at least one of the movable components is at least partly formed by a diamond-like-carbon layer (DLC layer) and the lubricant oil composition comprises at least one polyalkyl(meth)acrylate comprising 0.1 to 10% by weight of repeat units derived from amine derivatives of at least one polar ethylenically unsaturated monomer, the polar ethylenically unsaturated monomer from which the amine derivative is derived being maleic acid or a maleic acid derivative and the amine derivative being derived from the general formula (IIIa) in which R' is hydrogen and the R" radicals may each independently be selected from the group consisting of H and an alkyl radical having 1 to 9 carbon atoms.
A compound of Formula I wherein: A is independently monocyclic or bicyclic aryl or heteroaryl, optionally substituted with one or more A'; each A' is independently C 1 - 6 alkyl, halo, cyano, or heteroaryl; R 1 is tetrahydro pyranyl substituted with amino; or a pharmaceutically acceptable salt thereof. A is independently monocyclic or bicyclic aryl or heteroaryl, optionally substituted with one or more A'; each A' is independently C 1 - 6 alkyl, halo, cyano, or heteroaryl; each A' is independently C 1 - 6 alkyl, halo, cyano, or heteroaryl; R 1 is tetrahydro pyranyl substituted with amino;
A method for software defined topology, SDT, management interworking with network function virtualization, NFV, and software defined networking, SDN, comprising: receiving, at an SDT Manager, from a service customer, a service request comprising a request for a virtual service function, VSF, and a forwarding graph associated with the VSF, VSF FG, the VSF defining a virtual function, VF, having operating logic defined by the service customer; selecting a virtual network function, VNF, forwarding graph, FG, template in accordance with the received service request; generating a VF FG in accordance with the service request and the selected VNF FG template; selecting points of presence, PoPs, for a plurality of VFs in the VF FG in accordance with a connectivity constraint associated with at least one of the service request and the selected VNF FG template; and transmitting, to an NFV Manager, instructions to instantiate the VFs in accordance with at least one of the generated VF FG and the determined PoPs. receiving, at an SDT Manager, from a service customer, a service request comprising a request for a virtual service function, VSF, and a forwarding graph associated with the VSF, VSF FG, the VSF defining a virtual function, VF, having operating logic defined by the service customer; selecting a virtual network function, VNF, forwarding graph, FG, template in accordance with the received service request; generating a VF FG in accordance with the service request and the selected VNF FG template; selecting points of presence, PoPs, for a plurality of VFs in the VF FG in accordance with a connectivity constraint associated with at least one of the service request and the selected VNF FG template; and transmitting, to an NFV Manager, instructions to instantiate the VFs in accordance with at least one of the generated VF FG and the determined PoPs.