mhurhangee/ep-ind-claims huggingface dataset:
A processor-readable medium storing code comprising instructions that, when executed by a processor of an agent device, cause the agent device to: receive a printer discovery request from a Wi-Fi client, wherein receiving the printer discovery request comprises receiving a mDNS (multicast domain name service) printer discovery request; bridge between a protocol of the Wi-Fi client and a protocol of an enterprise network server and forward the printer discovery request and an agent identification to the enterprise network server; receive, from the enterprise network server, a list of printers associated with the agent identification, wherein receiving a list of printers comprises receiving a list of printers that includes non-Wi-Fi printers; expose the list of printers to the Wi-Fi client; receive from the Wi-Fi client via an Internet printing protocol request using an IP address of the agent device a print request that includes a print job and a printer identification, wherein the printer identification is associated with a printer on the list of printers; and forward the print request to the enterprise network server. receive a printer discovery request from a Wi-Fi client, wherein receiving the printer discovery request comprises receiving a mDNS (multicast domain name service) printer discovery request; bridge between a protocol of the Wi-Fi client and a protocol of an enterprise network server and forward the printer discovery request and an agent identification to the enterprise network server; receive, from the enterprise network server, a list of printers associated with the agent identification, wherein receiving a list of printers comprises receiving a list of printers that includes non-Wi-Fi printers; expose the list of printers to the Wi-Fi client; receive from the Wi-Fi client via an Internet printing protocol request using an IP address of the agent device a print request that includes a print job and a printer identification, wherein the printer identification is associated with a printer on the list of printers; and forward the print request to the enterprise network server.
An ankle prosthesis including a tibial implant, a talar implant and an insert with which said implants (1, 2) are articulated, according to which: - the top face of the tibial implant comprises at least one anchoring fin of the tibial implant in the tibia of the patient, and the bottom face of the tibial implant is a surface articulated with the top surface of the insert; - the bottom face of the talar implant includes means for anchoring to the talar bone of the patient, and the top face of the talar implant is a surface articulated with the bottom surface of the insert, said articulation surface being saddle-shaped and including a longitudinal central groove in which the insert can move longitudinally and rotate transversely; characterized in that the top face of the tibial implant includes, on its anterior edge, a shield intended to cover the bottom anterior portion of the tibia of the patient, and the tibial face of which is inclined and forms an angle (α) with the horizontal of between 15° and 45°, and in that passages (10, 11) are provided in this shield for bone screws that pass through the shield in an ascending manner and open on the inclined tibial face thereof. - the top face of the tibial implant comprises at least one anchoring fin of the tibial implant in the tibia of the patient, and the bottom face of the tibial implant is a surface articulated with the top surface of the insert; - the bottom face of the talar implant includes means for anchoring to the talar bone of the patient, and the top face of the talar implant is a surface articulated with the bottom surface of the insert, said articulation surface being saddle-shaped and including a longitudinal central groove in which the insert can move longitudinally and rotate transversely;
A method for compensating modal dispersion of a Graded Index multimode fiber and obtaining the maximum band at a predetermined wavelength, by coupling according to a length ratio that obtains the maximum band of the GI multimode fiber and a mode dispersion-compensating fiber having a refractive index profile that satisfies the following Equation Δ comp r = Δ opt r + k Δ opt r − Δ target r where Δ comp (r) is the relative refractive index difference of the mode dispersion-compensating fiber with respect to a cladding at a distance "r" from the core center, Δ target (r) is the relative refractive index difference of the GI multimode fiber to be compensated with respect to the cladding at the distance "r" from the core center, and Δ opt (r) is a relative refractive index difference of an optimum GI multimode fiber with respect to the cladding at the distance "r" from the core center wherein for 0 ≤ r ≤ a, Δ target r = Δ 1 1 − r / a α where Δ 1 is the relative refractive index difference of the core center with respect to the cladding, for r > a, Δ target (r) = 0; for 0 ≤ r ≤ a, Δ opt r = Δ 1 1 − r / a α 0; where α 0 is the value of α defining the GI multimode optical fiber with the lowest modal dispersion, for r > a, Δ opt (r) = 0; and "k" is a proportional numerical constant optimised for the maximum band and approximately equal to the ratio of the length of compensated fiber over the length of dispersion compensating fiber.
Isolated autologous CD133 + bone marrow derived stem cells (BMDSC) for use in inducing endometrial regeneration in a subject in need thereof, wherein the isolated CD133 + BMDSC are administered into the uterine arteries of the subject and wherein the subject has endometrial atrophy that is resistant to hormonal treatment.
A method of forming a stack for a semiconductor device, the method comprising: providing a semiconductor substrate; forming a conductive electrode layer on the semiconductor substrate; forming a conductive oxygen barrier layer on the electrode layer; and forming at least one complex oxide layer on the oxygen barrier layer; wherein forming the oxygen barrier layer includes forming a silicon layer on the electrode layer and forming a platinum layer on the silicon layer; and wherein forming the at least one complex oxide layer comprises heating to a temperature in a range of 500-700°C or higher. providing a semiconductor substrate; forming a conductive electrode layer on the semiconductor substrate; forming a conductive oxygen barrier layer on the electrode layer; and forming at least one complex oxide layer on the oxygen barrier layer; wherein forming the oxygen barrier layer includes forming a silicon layer on the electrode layer and forming a platinum layer on the silicon layer; and wherein forming the at least one complex oxide layer comprises heating to a temperature in a range of 500-700°C or higher.
An LED flash light source for a runway-embedded flash lighting device, comprising: an LED module; a frame-shaped attaching plate; a lens member; and a shock-absorbing sheet (14a, 14b), wherein the lens member is attached to a hollow portion in the frame of the frame-shaped attaching plate, the lens member is a lens member that allows an emission surface of flash emitted from the LED module to have a uniform illuminance distribution, the shock-absorbing sheet comprises: a lower shock-absorbing sheet; and an upper shock-absorbing sheet, the lower shock-absorbing sheet is placed on the LED module, the frame-shaped attaching plate to which the lens member is attached is placed on the lower shock-absorbing sheet, and the upper shock-absorbing sheet is placed on the frame-shaped attaching plate. an LED module; a frame-shaped attaching plate; a lens member; and a shock-absorbing sheet (14a, 14b), wherein the lens member is attached to a hollow portion in the frame of the frame-shaped attaching plate, the lens member is a lens member that allows an emission surface of flash emitted from the LED module to have a uniform illuminance distribution, the shock-absorbing sheet comprises: a lower shock-absorbing sheet; and an upper shock-absorbing sheet, a lower shock-absorbing sheet; and an upper shock-absorbing sheet, the lower shock-absorbing sheet is placed on the LED module, the frame-shaped attaching plate to which the lens member is attached is placed on the lower shock-absorbing sheet, and the upper shock-absorbing sheet is placed on the frame-shaped attaching plate.
Method for setting the air to fuel ratio (lambda) when using a burner fueled with a fuel gas and/or liquid fuel having an electronic closed-loop control, which at ignition and during operation under various load states keeps the ratio (lambda) in a desired safe-operating and environmentally-friendly range, the so-called tolerance range, wherein at a housing of the burner or of the electronic closed-loop control, an interface connected to the electronic closed-loop control via a data connection is mounted, and wherein via an input option at the interface a change is effected in the air to fuel ratio (lambda) within a correction range in the electronic closed-loop control which can be predetermined by the electronic closed-loop control, wherein the tolerance range for the air to fuel ratio (lambda) and the correction range are limited for possible changes such that even maximally incorrect, that is unfavourable, changes within the correction range under all operating conditions do not result in the air to fuel ratio (lambda) exceeding the tolerance range.
A door lock arrangement for installation in a recess within a door or the like, said arrangement comprising a lock body fitted with a front plate and comprising a cover plate; the lock body has at least one bolt protruding from an opening in the front plate and can be attached by screws or the like fitted in the screw holes of the front plate and can be furnished with said cover plate installed on the front plate, whereby the door or the like also has a recess for the front plate, characterised in that the back side of the front plate that is arranged against the door or the like has protrusions at the positions of the screw holes, and in case the lock body is installed without a cover plate, the front plate is supported by said protrusions in the front plate recess, in that the lock body can be fitted with a cover plate that has screw holes corresponding to the screw holes in the front plate for attaching the cover plate using the same screws or the like, in which case the lock body is arranged to be installed so that the front plate is attached to the door or the like supported by its back surface that is at least substantially independent of said protrusions, and that the combined thickness of the front plate and the cover plate is chosen so that when installed together, the combined thickness substantially corresponds to the depth of said front plate recess.
An optical distribution method, comprising: a cluster management device determining, at least a first optical distribution frame and a second optical distribution frame, and generating first port indication information and second port indication information according to fiber patch cord setting information; and the cluster management device sending the first port indication information to the first optical distribution frame, sending the second port indication information to the second optical distribution frame, the cluster management device receiving a first port identity and a fiber patch cord identity corresponding to the first port identity which are sent by the first optical distribution frame, and receiving a second port identity and a fiber patch cord identity corresponding to the second port identity which are sent by the second optical distribution frame; and characterized in that, before the receiving a second port identity and a fiber patch cord identity corresponding to the second port identity which are sent by the second optical distribution frame, the method further comprises: receiving a to-be-determined fiber patch cord identity sent by the second optical distribution frame, and if the to-be-determined fiber patch cord identity is the same as the fiber patch cord identity corresponding to the first port identity, sending an indication report of a correct fiber patch cord to the second optical distribution frame, and if the to-be-determined fiber patch cord identity is not the same as the fiber patch cord identity corresponding to the first port identity, sending an indication report of a error fiber patch cord to the second optical distribution frame. a cluster management device determining, at least a first optical distribution frame and a second optical distribution frame, and generating first port indication information and second port indication information according to fiber patch cord setting information; and the cluster management device sending the first port indication information to the first optical distribution frame, sending the second port indication information to the second optical distribution frame, the cluster management device receiving a first port identity and a fiber patch cord identity corresponding to the first port identity which are sent by the first optical distribution frame, and receiving a second port identity and a fiber patch cord identity corresponding to the second port identity which are sent by the second optical distribution frame; and receiving a to-be-determined fiber patch cord identity sent by the second optical distribution frame, and if the to-be-determined fiber patch cord identity is the same as the fiber patch cord identity corresponding to the first port identity, sending an indication report of a correct fiber patch cord to the second optical distribution frame, and if the to-be-determined fiber patch cord identity is not the same as the fiber patch cord identity corresponding to the first port identity, sending an indication report of a error fiber patch cord to the second optical distribution frame.
A thermal insulation composite, in particular a board-like thermal insulation composite, with a first side, in particular a damp or condensation side, and an opposite second side, in particular a dry or interior side, comprising at least one insulating material unit and, in the latter and/or between two adjacent insulating material units, at least one segment, which extends continuously from the first side to the second side, characterised in that the at least one segment is filled with capillary-conductive material beginning from the first side in the direction of the second side up to a capillary conduction end, which ends before reaching the second side, forming a capillary-conductive section of the segment, so that liquid can be transferred through the capillary-conductive section by means of capillary conduction from the first side to the capillary conduction end.
A microfluidic sensor device, comprising: a substrate; a fluid reservoir; an electrical interface; and a microfluidic structure in fluidic communication with the fluid reservoir and electrical communication with the electrical interface, the microfluidic structure having: a primary channel; a first electrical sensor disposed in the primary channel; and a first pump actuator disposed in the primary channel, the first pump actuator to induce fluid flow into the primary channel over the first electrical sensor; the microfluidic sensor device being characterised in that the microfluidic structure further has a secondary channel, the secondary channel comprising an inlet and an outlet in fluidic communication with the primary channel; a second electrical sensor disposed in the secondary channel; a second pump actuator disposed in the secondary channel to induce fluid flow into the secondary channel from the primary channel and over the second electrical sensor; and a filter disposed in the inlet of the secondary channel. a substrate; a fluid reservoir; an electrical interface; and a microfluidic structure in fluidic communication with the fluid reservoir and electrical communication with the electrical interface, the microfluidic structure having: a primary channel; a first electrical sensor disposed in the primary channel; and a first pump actuator disposed in the primary channel, the first pump actuator to induce fluid flow into the primary channel over the first electrical sensor; the microfluidic sensor device being characterised in that the microfluidic structure further has a secondary channel, the secondary channel comprising an inlet and an outlet in fluidic communication with the primary channel; a second electrical sensor disposed in the secondary channel; a second pump actuator disposed in the secondary channel to induce fluid flow into the secondary channel from the primary channel and over the second electrical sensor; and a filter disposed in the inlet of the secondary channel. a primary channel; a first electrical sensor disposed in the primary channel; and a first pump actuator disposed in the primary channel, the first pump actuator to induce fluid flow into the primary channel over the first electrical sensor; the microfluidic sensor device being characterised in that the microfluidic structure further has a secondary channel, the secondary channel comprising an inlet and an outlet in fluidic communication with the primary channel; a second electrical sensor disposed in the secondary channel; a second pump actuator disposed in the secondary channel to induce fluid flow into the secondary channel from the primary channel and over the second electrical sensor; and a filter disposed in the inlet of the secondary channel.
A method for processing a transparent workpiece, the method comprising: directing a laser beam output by a beam source onto a phase-adjustment device such that the laser beam downstream the phase-adjustment device comprises an Airy beam; and directing the Airy beam onto a surface of the transparent workpiece, wherein the Airy beam forms an Airy beam focal region in the transparent workpiece, the Airy beam of the Airy beam focal region inducing absorption in the transparent workpiece, the induced absorption producing a curved defect in the transparent workpiece, characterized in that the Airy beam of the Airy beam focal region comprises a maximum intensity of 100 TW / cm 2 or less. directing a laser beam output by a beam source onto a phase-adjustment device such that the laser beam downstream the phase-adjustment device comprises an Airy beam; and directing the Airy beam onto a surface of the transparent workpiece, wherein the Airy beam forms an Airy beam focal region in the transparent workpiece, the Airy beam of the Airy beam focal region inducing absorption in the transparent workpiece, the induced absorption producing a curved defect in the transparent workpiece, characterized in that the Airy beam of the Airy beam focal region comprises a maximum intensity of 100 TW / cm 2 or less.
Method for assembling a device comprising a timepiece hand and at least one end piece to be assembled to one end of the hand, the hand being made of an at least partially amorphous metal material, characterized in that said method further includes the following steps: - taking the hand and the end piece, the hand including a body and attachment means defining a housing, the attachment means including two elastic arms made of at least partially amorphous metal material; - deforming the attachment means by exerting a force in order to temporarily enlarge the housing; - placing the end piece inside the housing; - releasing the force exerted on the attachment means to allow the housing to return to its initial dimensions and hold the end piece. - taking the hand and the end piece, the hand including a body and attachment means defining a housing, the attachment means including two elastic arms made of at least partially amorphous metal material; - deforming the attachment means by exerting a force in order to temporarily enlarge the housing; - placing the end piece inside the housing; - releasing the force exerted on the attachment means to allow the housing to return to its initial dimensions and hold the end piece.
A sensor to detect solid particles of a target salt, comprising: a support substrate; an adsorption layer comprising an ion exchange medium formed of a first porous structured material functionalized with basic or acidic functional groups, wherein the basic or acidic functional groups remove an acid or base component from the target salt to form a free base or free acid of the target salt; a sensing layer oriented between the support substrate and the adsorption layer, the sensing layer comprising a second porous structured material functionalized to detect the free base or free acid of the target salt by a change in conductivity; and an electrode pair in contact with the sensing layer and separated by the sensing layer a support substrate; an adsorption layer comprising an ion exchange medium formed of a first porous structured material functionalized with basic or acidic functional groups, wherein the basic or acidic functional groups remove an acid or base component from the target salt to form a free base or free acid of the target salt; a sensing layer oriented between the support substrate and the adsorption layer, the sensing layer comprising a second porous structured material functionalized to detect the free base or free acid of the target salt by a change in conductivity; and an electrode pair in contact with the sensing layer and separated by the sensing layer
A fastener (100;300) comprising: a nut (110;310) that defines an internally threaded cylindrical bore through said nut along a longitudinal axis, wherein said nut comprises a nut head (116;316) on a first end, a cylindrical outer surface (118;318) and an external tapered ramp surface on a second end (120;320); a bolt (140;340) comprising a bolt head (142;342), an enlarged shank (150;350) and an externally threaded portion (144;344), wherein an outer diameter of said enlarged shank (150;350) is larger than a major diameter of said externally threaded portion (144;344) and wherein said externally threaded portion is threadingly engaged with said internally threaded cylindrical bore; and a sleeve defining an unthreaded cylindrical bore, wherein said sleeve is positioned over said bolt between said external tapered ramp surface and said bolt head (142;342); characterized in that the bolt has a first recess (146;346) adjacent said bolt head, an outer diameter of said first recess (146;346) being smaller than a major diameter of said internally threaded cylindrical bore of the nut, and the enlarged shank (150;350) being positioned between said externally threaded portion (144;344) and said first recess, and in that a first end of the sleeve is crimped into said first recess (146;346) such that an internal diameter of said unthreaded cylindrical bore at said first end thereof is smaller than the major diameter of said externally threaded portion (144;344). a nut (110;310) that defines an internally threaded cylindrical bore through said nut along a longitudinal axis, wherein said nut comprises a nut head (116;316) on a first end, a cylindrical outer surface (118;318) and an external tapered ramp surface on a second end (120;320); a bolt (140;340) comprising a bolt head (142;342), an enlarged shank (150;350) and an externally threaded portion (144;344), wherein an outer diameter of said enlarged shank (150;350) is larger than a major diameter of said externally threaded portion (144;344) and wherein said externally threaded portion is threadingly engaged with said internally threaded cylindrical bore; and a sleeve defining an unthreaded cylindrical bore, wherein said sleeve is positioned over said bolt between said external tapered ramp surface and said bolt head (142;342); characterized in that the bolt has a first recess (146;346) adjacent said bolt head, an outer diameter of said first recess (146;346) being smaller than a major diameter of said internally threaded cylindrical bore of the nut, and the enlarged shank (150;350) being positioned between said externally threaded portion (144;344) and said first recess, and in that a first end of the sleeve is crimped into said first recess (146;346) such that an internal diameter of said unthreaded cylindrical bore at said first end thereof is smaller than the major diameter of said externally threaded portion (144;344).