mhurhangee/ep-ind-claims huggingface dataset:
A knitted component configured to form an upper for an article of footwear, the upper configured to be attached to a sole structure, the knitted component comprising: a base portion with a first side that is at least partially defined by a first edge of the knitted component, the base portion configured to be disposed adjacent the sole structure; a heel portion and a forefoot portion that are formed of unitary knit construction with the base portion; and a medial portion and a lateral portion that extend from a second side of the base portion, the second side being opposite from the first side, one of the medial portion and the lateral portion being at least partially defined by a second edge of the knitted component, the second edge being configured to be joined to the first edge at a seam to locate the one of the medial portion and the lateral portion adjacent the first side of the base portion and the other of the medial portion and the lateral portion adjacent the second side of the base portion, and wherein the second edge is configured to be joined to the first edge such that the base portion, the heel portion, the forefoot portion, the medial portion, and the lateral portion cooperatively define a void that is configured to receive a foot, the knitted component being characterized by the knitted component further comprising a throat portion that is formed of unitary knit construction with the medial portion, the lateral portion, and the forefoot portion. a base portion with a first side that is at least partially defined by a first edge of the knitted component, the base portion configured to be disposed adjacent the sole structure; a heel portion and a forefoot portion that are formed of unitary knit construction with the base portion; and a medial portion and a lateral portion that extend from a second side of the base portion, the second side being opposite from the first side, one of the medial portion and the lateral portion being at least partially defined by a second edge of the knitted component, the second edge being configured to be joined to the first edge at a seam to locate the one of the medial portion and the lateral portion adjacent the first side of the base portion and the other of the medial portion and the lateral portion adjacent the second side of the base portion, and wherein the second edge is configured to be joined to the first edge such that the base portion, the heel portion, the forefoot portion, the medial portion, and the lateral portion cooperatively define a void that is configured to receive a foot, the knitted component being characterized by the knitted component further comprising a throat portion that is formed of unitary knit construction with the medial portion, the lateral portion, and the forefoot portion.
A chemical monitoring system comprising a sensor, the sensor including: a processor; a first electrode electrically isolated from the processor; an adjustable power supply electrically isolated from and in communication with the processor and configured to provide a predetermined voltage at the first electrode; a second electrode; a sense resistor connected in series between the first electrode and the adjustable power supply; an analog-to-digital converter in communication with and electrically isolated from the processor, and configured to provide information to the processor regarding (i) the voltage at the first electrode and (ii) the voltage drop across the sense resistor; wherein the processor is configured to receive the information from the ADC regarding the voltage on the first electrode, is configured to determine the voltage at the first electrode, and is configured to control the adjustable power supply based on the determined voltage at the first electrode; and the processor is configured to receive the information from the ADC regarding the voltage drop across the sense resistor, is configured to determine the voltage drop across the sense resistor, and, based on the determined voltage drop across the sense resistor, is configured to determine the current flowing through the sense resistor, wherein the processor is configured to determine the chlorine concentration in a fluid sample in which the first and second electrodes (344; 346) are inserted based on the current flowing through the sense resistor and the voltage applied to the first electrode. a processor; a first electrode electrically isolated from the processor; an adjustable power supply electrically isolated from and in communication with the processor and configured to provide a predetermined voltage at the first electrode; a second electrode; a sense resistor connected in series between the first electrode and the adjustable power supply; an analog-to-digital converter in communication with and electrically isolated from the processor, and configured to provide information to the processor regarding (i) the voltage at the first electrode and (ii) the voltage drop across the sense resistor; wherein the processor is configured to receive the information from the ADC regarding the voltage on the first electrode, is configured to determine the voltage at the first electrode, and is configured to control the adjustable power supply based on the determined voltage at the first electrode; and the processor is configured to receive the information from the ADC regarding the voltage drop across the sense resistor, is configured to determine the voltage drop across the sense resistor, and, based on the determined voltage drop across the sense resistor, is configured to determine the current flowing through the sense resistor, wherein the processor is configured to determine the chlorine concentration in a fluid sample in which the first and second electrodes (344; 346) are inserted based on the current flowing through the sense resistor and the voltage applied to the first electrode.
An apparatus for collecting a sample of fluid from a reservoir chamber of a therapeutic device having a porous structure and implanted in an eye of a patient, the apparatus comprising: a cartridge comprising: a connector for coupling the cartridge to a syringe having a capacity to contain an amount of therapeutic agent; at least one needle having a first lumen and a second lumen extending through the at least one needle; and a container in fluid communication with the second lumen; the at least one needle of the cartridge being operable to penetrate the implanted therapeutic device; the first lumen being arranged to allow an amount of the therapeutic agent to be injected from the syringe through the first lumen into the reservoir chamber of the implanted therapeutic device; the second lumen being arranged to allow fluid to be displaced from the reservoir chamber through the second lumen into the container at the same time as the amount of therapeutic agent is injected from the syringe through the first lumen into the reservoir chamber; and characterised by the container being arranged to collect the displaced fluid and couple to an apparatus to provide the displaced fluid for use in one or more analyses. a connector for coupling the cartridge to a syringe having a capacity to contain an amount of therapeutic agent; at least one needle having a first lumen and a second lumen extending through the at least one needle; and a container in fluid communication with the second lumen; the at least one needle of the cartridge being operable to penetrate the implanted therapeutic device; the first lumen being arranged to allow an amount of the therapeutic agent to be injected from the syringe through the first lumen into the reservoir chamber of the implanted therapeutic device; the second lumen being arranged to allow fluid to be displaced from the reservoir chamber through the second lumen into the container at the same time as the amount of therapeutic agent is injected from the syringe through the first lumen into the reservoir chamber; and characterised by the container being arranged to collect the displaced fluid and couple to an apparatus to provide the displaced fluid for use in one or more analyses. the at least one needle of the cartridge being operable to penetrate the implanted therapeutic device; the first lumen being arranged to allow an amount of the therapeutic agent to be injected from the syringe through the first lumen into the reservoir chamber of the implanted therapeutic device; the second lumen being arranged to allow fluid to be displaced from the reservoir chamber through the second lumen into the container at the same time as the amount of therapeutic agent is injected from the syringe through the first lumen into the reservoir chamber; and characterised by the container being arranged to collect the displaced fluid and couple to an apparatus to provide the displaced fluid for use in one or more analyses.
An insulation mat, in particular for insulating a floor, comprising an insulation layer made of a first fiber material and a fastening layer for fastening a pipe assembly, wherein the fastening layer is flexible, comprises a second material and is tacked to the insulation layer or sewn, twisted or braided with the insulation layer, the fastening layer being designed as a hook-and-loop nonwoven fabric for detachably fastening hook-and-loop elements.
A laser surgical system for making incisions in ocular tissues, the system comprising: a laser system comprising a scanning assembly, a laser operable to generate a laser beam configured to incise ocular tissue; and a control system operably coupled to the laser system and configured to: operate the imaging device to locate a posterior of a lens in an eye; operate the imaging device to locate a retina in the eye; operate the imaging device to locate a vitreous body in a vitreous humor in the eye; process the image data to determine a treatment scanning pattern for scanning a focal zone of the laser beam for performing one or more incisions in the vitreous humor, wherein the treatment scanning pattern includes cutting planes that form a three-dimensional shape around the vitreous body; and wherein positioning of the focal zone is guided by the control system based on the location of the vitreous body so as to perform the one or more incisions in the vitreous humor; wherein the laser is configured to incise the vitreous humor in the eye with the treatment scanning pattern. a laser system comprising a scanning assembly, a laser operable to generate a laser beam configured to incise ocular tissue; and a control system operably coupled to the laser system and configured to: operate the imaging device to locate a posterior of a lens in an eye; operate the imaging device to locate a retina in the eye; operate the imaging device to locate a vitreous body in a vitreous humor in the eye; process the image data to determine a treatment scanning pattern for scanning a focal zone of the laser beam for performing one or more incisions in the vitreous humor, wherein the treatment scanning pattern includes cutting planes that form a three-dimensional shape around the vitreous body; and wherein positioning of the focal zone is guided by the control system based on the location of the vitreous body so as to perform the one or more incisions in the vitreous humor; wherein the laser is configured to incise the vitreous humor in the eye with the treatment scanning pattern. operate the imaging device to locate a posterior of a lens in an eye; operate the imaging device to locate a retina in the eye; operate the imaging device to locate a vitreous body in a vitreous humor in the eye; process the image data to determine a treatment scanning pattern for scanning a focal zone of the laser beam for performing one or more incisions in the vitreous humor, wherein the treatment scanning pattern includes cutting planes that form a three-dimensional shape around the vitreous body; and wherein positioning of the focal zone is guided by the control system based on the location of the vitreous body so as to perform the one or more incisions in the vitreous humor; wherein the laser is configured to incise the vitreous humor in the eye with the treatment scanning pattern.
A method for producing forsterite microparticles having a primary particle size of 1 to 200 nm, as determined through electron microscopy, characterized in that the method comprises spray-drying a solution containing a water-soluble magnesium salt and colloidal silica at a mole ratio of magnesium atoms to silicon atoms (Mg/Si) of 2 in an atmosphere at 50°C or higher and lower than 300°C; and subsequently, firing the spray-dried product in air at 800 to 1,000°C.
An access system (100a, 100b) for vacuum sealing a passage defined in a body of a duct (16, 18, 20), the passage surrounded by a flange that extends outwardly from the body about a perimeter of the passage, the access system (100a, 100b) comprising: A plug (104, 200) coupled to the flange of the duct (16, 18, 20) to seal the passage, the plug (104, 200) movable between a first, unsealed position and a second, sealed position upon the application of a force, the plug (104, 200) including a base, a sidewall (126, 210) that extends outward from a perimeter of the base and characterized in that an overhang coupled to the sidewall (126, 210), the overhang substantially wraps around an outer circumference of the flange and extends from the sidewall (126, 210) in a direction towards an exterior surface of the body.
Automatic cleaning and disinfection machine, in particular for medical instruments and appliances, comprising a washing container which provides a rinsing chamber, and a spray device arranged in the rinsing chamber, the spray device having a plurality of spray arms (7, 8, 28) which are rotatable about a common axis of rotation, and a supply pipe for supplying rinsing solution to the spray arms (7, 8, 28), which pipe extends along the axis of rotation of the spray arms (7, 8, 28), wherein the supply pipe comprises portions (25, 26, 27) which can be interconnected in a fluid-tight manner, wherein two of the portions (25, 27), specifically a portion arranged at the base and a portion arranged at the top, are formed on the washing container on the machine side and are each coupled to one spray arm (7, 8) respectively, and wherein a central portion that is arranged between these two portions (25, 27) is received in an axially movably mounted manner by a dishwasher rack which is removable from the rinsing chamber.
An equipment enclosure, comprising: a plurality of equipment elements (201a, 201b), each equipment element having one or more heat generating sources, the equipment elements (201a, 201b) having inlet and exhaust vents located in their housings at the front and the rear respectively; a heat exchanger mounted towards the top of the equipment enclosure, the heat exchanger being thermally coupled to at least some of the heat generating sources; an exhaust vent in the top of the equipment enclosure through which rising air heated by the heat exchanger, which heats up as a result of the heat exchanger being thermally coupled to at least some of the heat generating sources, may be evacuated; an equipment enclosure inlet vent through which air from outside the equipment enclosure may be drawn into the equipment enclosure to directly cool the heat exchanger by stack effect ventilation; and a baffle to segregate outside air drawn into the equipment enclosure through the equipment element inlet vents from outside air drawn through the equipment enclosure inlet vent to establish first and second separate and parallel air paths, the first air path to cool the heat exchanger directly using stack effect ventilation, and the second air path to cool the equipment elements directly using stack effect ventilation, wherein heated exhaust airfrom the first and second air paths is evacuated through the exhaust vent. a plurality of equipment elements (201a, 201b), each equipment element having one or more heat generating sources, the equipment elements (201a, 201b) having inlet and exhaust vents located in their housings at the front and the rear respectively; a heat exchanger mounted towards the top of the equipment enclosure, the heat exchanger being thermally coupled to at least some of the heat generating sources; an exhaust vent in the top of the equipment enclosure through which rising air heated by the heat exchanger, which heats up as a result of the heat exchanger being thermally coupled to at least some of the heat generating sources, may be evacuated; an equipment enclosure inlet vent through which air from outside the equipment enclosure may be drawn into the equipment enclosure to directly cool the heat exchanger by stack effect ventilation; and a baffle to segregate outside air drawn into the equipment enclosure through the equipment element inlet vents from outside air drawn through the equipment enclosure inlet vent to establish first and second separate and parallel air paths, the first air path to cool the heat exchanger directly using stack effect ventilation, and the second air path to cool the equipment elements directly using stack effect ventilation, wherein heated exhaust airfrom the first and second air paths is evacuated through the exhaust vent.
A transparent display substrate, comprising: a plurality of pixel units, wherein each of the plurality of pixel units comprises at least three sub-pixel groups (11, 12, 13) respectively emitting light of different colors, each of the sub-pixel groups (11, 12, 13) comprises at least two sub-pixels (111, 121, 131) emitting light of the same color, and each of the sub-pixels comprises: a first electrode; a light-emitting structure block located on the first electrode; and a second electrode located on the light-emitting structure block, characterized in that in each of at least three sub-pixel groups (11, 12, 13), two first electrodes of two adjacent sub-pixels are electrically connected by a first connecting portion, and two first electrodes of two non-adjacent sub-pixels are electrically connected by a second connecting portion, which at least partially surrounds sides of the sub-pixels in other sub-pixel groups, and the first connecting portion and the second connecting portion are located in the same layer. a plurality of pixel units, wherein each of the plurality of pixel units comprises at least three sub-pixel groups (11, 12, 13) respectively emitting light of different colors, each of the sub-pixel groups (11, 12, 13) comprises at least two sub-pixels (111, 121, 131) emitting light of the same color, and each of the sub-pixels comprises: a first electrode; a light-emitting structure block located on the first electrode; and a second electrode located on the light-emitting structure block, a first electrode; a light-emitting structure block located on the first electrode; and a second electrode located on the light-emitting structure block, characterized in that in each of at least three sub-pixel groups (11, 12, 13), two first electrodes of two adjacent sub-pixels are electrically connected by a first connecting portion, and two first electrodes of two non-adjacent sub-pixels are electrically connected by a second connecting portion, which at least partially surrounds sides of the sub-pixels in other sub-pixel groups, and the first connecting portion and the second connecting portion are located in the same layer.
A method for modifying a first data set, which is called the target data set and represents the contour of an anatomical object, the method comprising the steps of: - matching a second data set, which is called the template data set and is characterized in that it comprises a template for the modification to be applied to the target data set and a template of the object, to the target data set such that the object template in the template data set matches the object in the target data set, thereby also adapting the modification template to the shape and/or size of the anatomical object represented by the target data set, wherein the modification template represents a first number of first areas or volumes to be added to the contour of the anatomical object and a second number of second areas or volumes to be subtracted from the contour of the anatomical object; - extending or diminishing the contour represented by the target data set in accordance with the adapted modification template; and - closing a gap between the object and the adapted modification template if there is such a gap. - matching a second data set, which is called the template data set and is characterized in that it comprises a template for the modification to be applied to the target data set and a template of the object, to the target data set such that the object template in the template data set matches the object in the target data set, thereby also adapting the modification template to the shape and/or size of the anatomical object represented by the target data set, wherein the modification template represents a first number of first areas or volumes to be added to the contour of the anatomical object and a second number of second areas or volumes to be subtracted from the contour of the anatomical object; - extending or diminishing the contour represented by the target data set in accordance with the adapted modification template; and - closing a gap between the object and the adapted modification template if there is such a gap.