mhurhangee/ep-ind-claims huggingface dataset:
A medication dispenser comprising: a base seat including a mouthpiece; a circuitry unit disposed on said base seat, and including a first circuit board, a battery, a first switch that is disposed on said first circuit board, and a second switch that is disposed on said first circuit board; and an outer casing movably mounted to said base seat, and movable relative to said base seat between a close position where said outer casing covers said mouthpiece, and an open position where said outer casing uncovers said mouthpiece, when said outer casing is at the close position, said first switch being actuated such that electric power is prevented from being supplied from said battery to said first circuit board, when said outer casing is at the open position, said second switch being actuated such that electric power is supplied from said battery to said first circuit board; said medication dispenser being characterized in that said outer casing includes an upper plate and a slide block that is fixedly disposed on an inner surface of said upper plate, said slide block for actuating said first switch or said second switch, said slide block moving with movement of said outer casing for actuating said first switch when said outer casing is at the close position and for actuating said second switch when said outer casing is at the open position. a base seat including a mouthpiece; a circuitry unit disposed on said base seat, and including a first circuit board, a battery, a first switch that is disposed on said first circuit board, and a second switch that is disposed on said first circuit board; and an outer casing movably mounted to said base seat, and movable relative to said base seat between a close position where said outer casing covers said mouthpiece, and an open position where said outer casing uncovers said mouthpiece, when said outer casing is at the close position, said first switch being actuated such that electric power is prevented from being supplied from said battery to said first circuit board, when said outer casing is at the open position, said second switch being actuated such that electric power is supplied from said battery to said first circuit board; said medication dispenser being characterized in that said outer casing includes an upper plate and a slide block that is fixedly disposed on an inner surface of said upper plate, said slide block for actuating said first switch or said second switch, said slide block moving with movement of said outer casing for actuating said first switch when said outer casing is at the close position and for actuating said second switch when said outer casing is at the open position.
An antibacterial member comprising a base material having an irregular surface, wherein at least a DLC film containing no fluorine and a DLC film (F-DLC film) containing fluorine are sequentially coated on the surface of the base material, The F-DLC film is provided at least partially or entirely on an outermost surface of a base material, the F-DLC film has an element ratio (F/(F + C)) of 17% to 72% and a nanoindentation hardness of 2,000 MPa to 16,000 MPa, and Rz > t holds, where t represents a thickness between the surface of the base material and a surface of the F-DLC film at deposition and Rz represents a maximum height of section for a surface roughness of the F-DLC film at deposition.
An optical transmission system comprising: an optical fiber transmission line including a span from a repeater to a next stage repeater, the span consisting of an optical fiber, the optical fiber comprising: a core extending along a predetermined axis; and a cladding provided on an outer periphery of the core, each of the core and the cladding being configured to satisfy the following formula: 0.44 α 1550 _ dB < Aeff 1450 ⋅ α 1450 < 22 α 1550 _ dB ⋅ 100 − 12 where Aeff 1450 [μm 2] is an effective area at a wavelength of 1450 nm; α 1450 [/km] is a transmission loss at a wavelength of 1450 nm; and α 1550 dB [dB/km] is a transmission loss at a wavelength of 1550 nm; an Er-doped optical fiber amplifier which is configured to amplify signal light transmitted through the optical fiber transmission line; and a Raman amplifier (22;40) which is configured to Raman-amplify the signal light transmitted through the optical fiber transmission line, characterized in that: the following formula is satisfied: 0.11 Aeff P ⋅ α P ⋅ P Pump < α SdB ⋅ L − 0.11 Aeff P ⋅ α P ⋅ P Pump < 0.19 L − 0.028 P Pump − 1 where Aeff P [μm 2] is an effective area of the optical fiber at a wavelength of pumping light for Raman amplification; α P [/km] is a transmission loss of the optical fiber transmission line at the wavelength of the pumping light for Raman amplification; α SdB [dB/km] is a transmission loss of the optical fiber transmission line at a signal light wavelength; L is a span length [km] of the optical fiber transmission line; and P Pump [mW] is a pumping light power. an optical fiber transmission line including a span from a repeater to a next stage repeater, the span consisting of an optical fiber, the optical fiber comprising: a core extending along a predetermined axis; and a cladding provided on an outer periphery of the core, each of the core and the cladding being configured to satisfy the following formula: 0.44 α 1550 _ dB < Aeff 1450 ⋅ α 1450 < 22 α 1550 _ dB ⋅ 100 − 12 where Aeff 1450 [μm 2] is an effective area at a wavelength of 1450 nm; α 1450 [/km] is a transmission loss at a wavelength of 1450 nm; and α 1550 dB [dB/km] is a transmission loss at a wavelength of 1550 nm; an Er-doped optical fiber amplifier which is configured to amplify signal light transmitted through the optical fiber transmission line; and a Raman amplifier (22;40) which is configured to Raman-amplify the signal light transmitted through the optical fiber transmission line, characterized in that: the following formula is satisfied: 0.11 Aeff P ⋅ α P ⋅ P Pump < α SdB ⋅ L − 0.11 Aeff P ⋅ α P ⋅ P Pump < 0.19 L − 0.028 P Pump − 1 where Aeff P [μm 2] is an effective area of the optical fiber at a wavelength of pumping light for Raman amplification; α P [/km] is a transmission loss of the optical fiber transmission line at the wavelength of the pumping light for Raman amplification; α SdB [dB/km] is a transmission loss of the optical fiber transmission line at a signal light wavelength; L is a span length [km] of the optical fiber transmission line; and P Pump [mW] is a pumping light power.
A printing ink or coating composition comprising 0.1 wt% to 20 wt% of an alkoxylated polymer wherein the alkoxylated polymer comprises: a) a backbone with one or more alkoxylated sites; b) terminal ends each of which is a site that can be alkoxylated; and c) one or more polyfunctional monomers or oligomers having two or more functional polar groups with an active hydrogen, or mixtures thereof. a) a backbone with one or more alkoxylated sites; b) terminal ends each of which is a site that can be alkoxylated; and c) one or more polyfunctional monomers or oligomers having two or more functional polar groups with an active hydrogen, or mixtures thereof.
Device for metal-coating fibres by liquid means, comprising a sink containing a liquid metal bath through which is pulled a fibre to be coated by the latter, said device further comprising a cooling system positioned downstream of said metal bath to solidify the metal cover created by capillary action around said fibre, characterised in that said cooling system comprises at least one nozzle for ejecting a compressed gas conformed to eject gas in a direction making with the drive direction of the coated wire an angle less than 30° and positioned at a distance from the liquid metal bath of less than 5 mm, and in that the system is sized to solidify the metal at the periphery of the coated wire over a course of a length less than or equal to 200 mm.
A method for determining formation porosity comprising: determining a loss tangent of formation water as a first function; wherein the first function defines the loss tangent of the formation water as a function of at least one of water dielectric loss and water dielectric constant; determining the water dielectric constant as a second function; wherein the second function defines the water dielectric constant as a function of at least one of water resistivity and water temperature; determining a loss tangent of formation as a third function; wherein the third function defines the loss tangent of formation as a function of a measured formation resistivity and a measured dielectric constant; using the first function, the second function and the third function to determine at least one of formation water resistivity, formation water dielectric constant, and formation porosity. determining a loss tangent of formation water as a first function; wherein the first function defines the loss tangent of the formation water as a function of at least one of water dielectric loss and water dielectric constant; determining the water dielectric constant as a second function; wherein the second function defines the water dielectric constant as a function of at least one of water resistivity and water temperature; determining a loss tangent of formation as a third function; wherein the third function defines the loss tangent of formation as a function of a measured formation resistivity and a measured dielectric constant; using the first function, the second function and the third function to determine at least one of formation water resistivity, formation water dielectric constant, and formation porosity.
A surgical implant (1000; 2000), comprising: an implant body (1005; 2200); and a selectively adjustable assembly attached to the implant body (1005; 2200), having adjustable elements, and operable to cause an expanding and contracting configuration change in a portion of the implant body and, thereby, permit implantation of the implant body within an anatomic orifice to effect a seal therein under normal physiological conditions, wherein the adjustable elements comprise: a circumferentially expandable and contractible cuff (1010; 2210); and an adjustment member looping circumferentially around the cuff (1010; 2210); characterised in that the adjustment member is rotatable to increase and decrease the circumference of the circumferential loop to circumferentially expand and contract the cuff (1010; 2210) an implant body (1005; 2200); and a selectively adjustable assembly attached to the implant body (1005; 2200), having adjustable elements, and operable to cause an expanding and contracting configuration change in a portion of the implant body and, thereby, permit implantation of the implant body within an anatomic orifice to effect a seal therein under normal physiological conditions, wherein the adjustable elements comprise: a circumferentially expandable and contractible cuff (1010; 2210); and an adjustment member looping circumferentially around the cuff (1010; 2210); characterised in that the adjustment member is rotatable to increase and decrease the circumference of the circumferential loop to circumferentially expand and contract the cuff (1010; 2210) a circumferentially expandable and contractible cuff (1010; 2210); and an adjustment member looping circumferentially around the cuff (1010; 2210); characterised in that the adjustment member is rotatable to increase and decrease the circumference of the circumferential loop to circumferentially expand and contract the cuff (1010; 2210)
A radio bearer configuration method, comprising: receiving, by a second terminal, a first message from a first terminal, wherein the first message comprises first configuration information of a sidelink radio bearer between the second terminal and the first terminal, and the first configuration information includes first indication information and a bearer type indication; wherein the first indication information indicates that a radio link control RLC layer working mode of the sidelink radio bearer is an unacknowledged mode, UM, and the bearer type indication indicates that the sidelink radio bearer is a bidirectional bearer; establishing or configuring, by the second terminal, the sidelink radio bearer based on the first message; wherein the method further comprises: sending, by the second terminal, a third message to a network device, wherein the third message comprises the first indication information; and after said sending, receiving, by the second terminal, a second message comprising second configuration information from the network device; and configuring, by the second terminal, the sidelink radio bearer based on the second configuration information. receiving, by a second terminal, a first message from a first terminal, wherein the first message comprises first configuration information of a sidelink radio bearer between the second terminal and the first terminal, and the first configuration information includes first indication information and a bearer type indication; wherein the first indication information indicates that a radio link control RLC layer working mode of the sidelink radio bearer is an unacknowledged mode, UM, and the bearer type indication indicates that the sidelink radio bearer is a bidirectional bearer; establishing or configuring, by the second terminal, the sidelink radio bearer based on the first message; wherein the method further comprises: sending, by the second terminal, a third message to a network device, wherein the third message comprises the first indication information; and after said sending, receiving, by the second terminal, a second message comprising second configuration information from the network device; and configuring, by the second terminal, the sidelink radio bearer based on the second configuration information. sending, by the second terminal, a third message to a network device, wherein the third message comprises the first indication information; and after said sending, receiving, by the second terminal, a second message comprising second configuration information from the network device; and configuring, by the second terminal, the sidelink radio bearer based on the second configuration information.
A computer-implemented method for analyzing a patient's body part of interest to assess bone strength and/or risk of future fracture, said method comprising: utilizing by means of a processor a priori information in the form of a three-dimensional volume model for a body part of interest together with two-dimensional x-ray absorptiometry data from X-ray absorptiometric scans of the body part of interest of a patient at different angles performed by a bone densitometer to construct a three-dimensional model of the patient's body part of interest; and performing measurements of various geometric parameters on the three-dimensional model and determining at least one of geometric and structural properties using the processor, the method being characterised by the following steps carried out by the processor: (i) projecting the three-dimensional volume model at the angles of said two-dimensional absorptiometry data; (ii) comparing said projected views and said two-dimensional absorptiometry data and calculating a cost function based on the comparison; (iii) changing the three-dimensional volume model; and (iv) iteratively repeating steps (i), (ii) and (iii) to identify a three-dimensional model of the body part of interest for which the cost function is at a minimum. utilizing by means of a processor a priori information in the form of a three-dimensional volume model for a body part of interest together with two-dimensional x-ray absorptiometry data from X-ray absorptiometric scans of the body part of interest of a patient at different angles performed by a bone densitometer to construct a three-dimensional model of the patient's body part of interest; and performing measurements of various geometric parameters on the three-dimensional model and determining at least one of geometric and structural properties using the processor, the method being characterised by the following steps carried out by the processor: (i) projecting the three-dimensional volume model at the angles of said two-dimensional absorptiometry data; (ii) comparing said projected views and said two-dimensional absorptiometry data and calculating a cost function based on the comparison; (iii) changing the three-dimensional volume model; and (iv) iteratively repeating steps (i), (ii) and (iii) to identify a three-dimensional model of the body part of interest for which the cost function is at a minimum. (i) projecting the three-dimensional volume model at the angles of said two-dimensional absorptiometry data; (ii) comparing said projected views and said two-dimensional absorptiometry data and calculating a cost function based on the comparison; (iii) changing the three-dimensional volume model; and (iv) iteratively repeating steps (i), (ii) and (iii) to identify a three-dimensional model of the body part of interest for which the cost function is at a minimum.
A robotic surgery system comprising: a robotic arm adapted to carry an endoscopic camera; a console including a screen operable to display an image from the endoscopic camera; an eye tracking system configured to determine a zone of a surgeon's gaze on the image on the screen and to determine a distance of the surgeon's eyes from the screen, wherein the surgery system is responsive to the eye tracking system to cause the robotic arm to move the camera in response to the determined zone of the surgeon's gaze to pan the image on the screen, and to cause the robotic arm to move the camera to enlarge or diminish the image on the screen in response to movement of the surgeon's face towards or away from the screen. a robotic arm adapted to carry an endoscopic camera; a console including a screen operable to display an image from the endoscopic camera; an eye tracking system configured to determine a zone of a surgeon's gaze on the image on the screen and to determine a distance of the surgeon's eyes from the screen, wherein the surgery system is responsive to the eye tracking system to cause the robotic arm to move the camera in response to the determined zone of the surgeon's gaze to pan the image on the screen, and to cause the robotic arm to move the camera to enlarge or diminish the image on the screen in response to movement of the surgeon's face towards or away from the screen.
A method for creating a virtual database system, the method comprising: receiving different point-in-time copies of a source database, the source database comprising a plurality of database blocks; storing on a storage system, database blocks for a plurality of different point-in-time copies of the source database, wherein at least some of the stored database blocks are associated with multiple point-in-time copies of the source database; receiving transaction logs from the source database, wherein the transaction logs represent changes to the source database since a previous receipt of transaction logs from the source database; applying the received transaction logs to one or more stored database blocks to update the one or more stored database blocks; creating a set of files for a virtual database, wherein each file in the set of files is linked to the database blocks on the storage system associated with a point-in-time copy of the source database; and mounting the set of files associated with the virtual database on a database server allowing the database server to read from and write to the set of files. receiving different point-in-time copies of a source database, the source database comprising a plurality of database blocks; storing on a storage system, database blocks for a plurality of different point-in-time copies of the source database, wherein at least some of the stored database blocks are associated with multiple point-in-time copies of the source database; receiving transaction logs from the source database, wherein the transaction logs represent changes to the source database since a previous receipt of transaction logs from the source database; applying the received transaction logs to one or more stored database blocks to update the one or more stored database blocks; creating a set of files for a virtual database, wherein each file in the set of files is linked to the database blocks on the storage system associated with a point-in-time copy of the source database; and mounting the set of files associated with the virtual database on a database server allowing the database server to read from and write to the set of files.
A computer-implemented method for rendering an image comprising a plurality of primitives, the method comprising: generating a visibility stream for an initial binning configuration, wherein the visibility stream comprises visibility information indicating a distribution of visible primitives to one or more bins of the initial binning configuration; receiving or determining a revised binning configuration, wherein the revised binning configuration is based on the visibility information, and comprises a revised distribution of primatives to one or more different bins than the one or more bins of the initial binning configuration, wherein the boundaries of one or more bins in said revised binning configuration have been altered to encompass an alternative set of primitives; and determining, based on said visibility information, to render the image using direct rendering, tile-based rendering, or a combination of direct rendering and tile based rendering of the one or more different bins of the revised binning configuration. receiving or determining a revised binning configuration, wherein the revised binning configuration is based on the visibility information, and comprises a revised distribution of primatives to one or more different bins than the one or more bins of the initial binning configuration, wherein the boundaries of one or more bins in said revised binning configuration have been altered to encompass an alternative set of primitives; and determining, based on said visibility information, to render the image using direct rendering, tile-based rendering, or a combination of direct rendering and tile based rendering of the one or more different bins of the revised binning configuration.