mhurhangee/ep-ind-claims huggingface dataset:
Electric switching device, such as a relay, comprising - a first and second terminal (2, 4), - a contact sub-assembly having at least two contact members (8, 10) and configured to be moved from a connecting position, in which the contact members (8, 10) contact each other, to an interrupting position, in which the contact members (8, 10) are spaced apart from each other, - a current path extending, in the connecting position of the contact sub-assembly from the first terminal to the second terminal via the contact sub-assembly and being interrupted in the interrupting position of the contact sub-assembly, - a Lorentz force generator comprising at least two conductor members (34, 36) located in the current path and arranged to generate a Lorentz force acting on the conductor members (34, 36) characterised in that the Lorentz force, while it applies contact pressure between the contact members (8,10), is mechanically translated into an opening force in the contact sub-assembly, the opening force biasing the contact sub-assembly into the interrupting position. - a first and second terminal (2, 4), - a contact sub-assembly having at least two contact members (8, 10) and configured to be moved from a connecting position, in which the contact members (8, 10) contact each other, to an interrupting position, in which the contact members (8, 10) are spaced apart from each other, - a current path extending, in the connecting position of the contact sub-assembly from the first terminal to the second terminal via the contact sub-assembly and being interrupted in the interrupting position of the contact sub-assembly, - a Lorentz force generator comprising at least two conductor members (34, 36) located in the current path and arranged to generate a Lorentz force acting on the conductor members (34, 36) characterised in that the Lorentz force, while it applies contact pressure between the contact members (8,10), is mechanically translated into an opening force in the contact sub-assembly, the opening force biasing the contact sub-assembly into the interrupting position.
An apparatus for detecting a presence of an object (428-728, 4128, 4728, 4828), comprising: a printed circuit board; at least one radar transmit antenna (2110, 2114) disposed on a center portion of the printed circuit board; a plurality of radar receive antennas disposed on a periphery of the printed circuit board, each configured to receive a radar signal from the at least one radar transmit antenna (2110, 2114); a first transmit coil of a wireless charger disposed over the printed circuit board; and a second transmit coil of the wireless charger disposed adjacent to the first transmit coil, the at least one radar transmit antenna (2110, 2114) disposed adjacent to a corner of and between each of the first and second transmit coils (2106, 2116). a printed circuit board; at least one radar transmit antenna (2110, 2114) disposed on a center portion of the printed circuit board; a plurality of radar receive antennas disposed on a periphery of the printed circuit board, each configured to receive a radar signal from the at least one radar transmit antenna (2110, 2114); a first transmit coil of a wireless charger disposed over the printed circuit board; and a second transmit coil of the wireless charger disposed adjacent to the first transmit coil, the at least one radar transmit antenna (2110, 2114) disposed adjacent to a corner of and between each of the first and second transmit coils (2106, 2116).
A method of applying a closure to a container, the container including at least one opening through which contents of the container are dispensed, the method comprising: press-fitting a sealing member onto the container over the container opening such that a retention member of the sealing member engages a holding member of the container, an axial force resulting from said press-fitting retaining the sealing member in sealing engagement with the container to sealingly close the container opening; and applying a cap member to the container at the sealed container opening, the cap member including a top rim and a sidewall depending therefrom, the sidewall including an attachment member for engagement with the container, and an engagement member coupling the sealing member to the cap member upon application of the cap member to the container, the cap member being rotatable relative to both the container and the sealing member, wherein the step of applying the cap member to the container is performed after the step of press-fitting the sealing member onto the container and wherein the step of press-fitting the sealing member onto the container occurs in a sterile area of a capping zone and the step of applying the cap member to the container occurs outside of the sterile area. press-fitting a sealing member onto the container over the container opening such that a retention member of the sealing member engages a holding member of the container, an axial force resulting from said press-fitting retaining the sealing member in sealing engagement with the container to sealingly close the container opening; and applying a cap member to the container at the sealed container opening, the cap member including a top rim and a sidewall depending therefrom, the sidewall including an attachment member for engagement with the container, and an engagement member coupling the sealing member to the cap member upon application of the cap member to the container, the cap member being rotatable relative to both the container and the sealing member, wherein the step of applying the cap member to the container is performed after the step of press-fitting the sealing member onto the container and wherein the step of press-fitting the sealing member onto the container occurs in a sterile area of a capping zone and the step of applying the cap member to the container occurs outside of the sterile area.
A hair iron, comprising: a first arm and a second arm movable relative to each other between an open position and a closed position, a distal segment of the first arm is spaced from a distal segment of the second arm in the open position, the distal segment of the first arm is positioned in close proximity to the distal segment of the second arm in the closed position; a contact surface positioned on an exterior of the distal segment of the first arm for contacting hair during use; and the first arm includes a heater having a ceramic substrate and an electrically resistive trace on an exterior face of the ceramic substrate, the heater is positioned to supply heat generated by applying an electric current to the electrically resistive trace to the contact surface, characterised in that the hair iron further comprises a sleeve covering an outer face of the heater that faces toward the second arm in the closed position, wherein a portion of the sleeve forms the contact surface, wherein the sleeve is composed of a thin film of thermally conductive and electrically insulative material or wherein the sleeve is composed of at least one of a filled or unfilled polyimide. a first arm and a second arm movable relative to each other between an open position and a closed position, a distal segment of the first arm is spaced from a distal segment of the second arm in the open position, the distal segment of the first arm is positioned in close proximity to the distal segment of the second arm in the closed position; a contact surface positioned on an exterior of the distal segment of the first arm for contacting hair during use; and the first arm includes a heater having a ceramic substrate and an electrically resistive trace on an exterior face of the ceramic substrate, the heater is positioned to supply heat generated by applying an electric current to the electrically resistive trace to the contact surface, characterised in that the hair iron further comprises a sleeve covering an outer face of the heater that faces toward the second arm in the closed position, wherein a portion of the sleeve forms the contact surface, wherein the sleeve is composed of a thin film of thermally conductive and electrically insulative material or wherein the sleeve is composed of at least one of a filled or unfilled polyimide.
An apparatus (2; 102; 202) for dissolving a gas into a liquid comprising: a liquid inlet (4; 104; 204) for supplying the liquid into the apparatus; a liquid inlet pump in fluid communication with and upstream of the liquid inlet (4; 104; 204), wherein the pump is arranged to pump the liquid through the apparatus and deliver a flow rate of between 0.01 mL/min and 100 L/min; a gas inlet (6; 106; 206) for injecting gas into the liquid within the apparatus, the gas inlet (6; 106; 206) being in fluid communication with, and downstream of, the liquid inlet (4; 104; 204); a diffusion chamber in fluid communication with, and downstream of, the gas inlet, arranged such that the gas is injected through the gas inlet into the diffusion chamber, wherein the diffusion chamber is configured to promote break-up of the gas into a plurality of gas bubbles; a venturi (52; 152) in fluid communication with, and downstream of, the diffusion chamber, wherein the venturi (52; 152) is arranged to dissolve the gas into the liquid passing through the venturi (52; 152); and an outlet (1; 118; 218) for the liquid and dissolved gas in fluid communication with, and downstream of, the venturi (52; 152); wherein at least part of the liquid inlet (4; 104; 204), at least part of the gas inlet (6; 106; 206), at least part of the venturi (52; 152) and at least part of the outlet are formed in an integrally formed piece of material. a liquid inlet (4; 104; 204) for supplying the liquid into the apparatus; a liquid inlet pump in fluid communication with and upstream of the liquid inlet (4; 104; 204), wherein the pump is arranged to pump the liquid through the apparatus and deliver a flow rate of between 0.01 mL/min and 100 L/min; a gas inlet (6; 106; 206) for injecting gas into the liquid within the apparatus, the gas inlet (6; 106; 206) being in fluid communication with, and downstream of, the liquid inlet (4; 104; 204); a diffusion chamber in fluid communication with, and downstream of, the gas inlet, arranged such that the gas is injected through the gas inlet into the diffusion chamber, wherein the diffusion chamber is configured to promote break-up of the gas into a plurality of gas bubbles; a venturi (52; 152) in fluid communication with, and downstream of, the diffusion chamber, wherein the venturi (52; 152) is arranged to dissolve the gas into the liquid passing through the venturi (52; 152); and an outlet (1; 118; 218) for the liquid and dissolved gas in fluid communication with, and downstream of, the venturi (52; 152); wherein at least part of the liquid inlet (4; 104; 204), at least part of the gas inlet (6; 106; 206), at least part of the venturi (52; 152) and at least part of the outlet are formed in an integrally formed piece of material.
A steering device comprising a steering member for mutually steering a first vehicle unit and a second vehicle unit of an articulated vehicle comprising means (30, 32) for mutually pivoting said vehicle units, wherein the steering device comprises a housing configuration arranged to form a supply space between said vehicle units (2, 3), wherein the housing configuration is arranged to form a protected space, in which at least a part of the steering member is arranged, characterized by means (5, 6, 8, S; 60, 62, A, O) arranged for removal of stuff in the supply space incoming from the surrounding, such as snow and/or ice and/or rocks and/or gravel or similar, wherein said means comprises the bottom part of the housing configuration, which comprises two mutually movable protective elements (60, 62) arranged to, in a non-pivoting state of the vehicle, partly overlap each other, and, in a pivotable state of the vehicle, provide a drainage opening of the bottom part.
A nasal delivery device adapted to deliver a substance to the nasal airway of a subject, comprising: a closure unit adapted to cause closure of the oropharyngeal velum of the subject; and a delivery unit adapted to deliver a gas flow and substance to one of the nostrils of the subject, wherein the delivery unit includes an outlet through which the gas flow and substance is in use delivered to the one nostril; characterized in that: the delivery unit is configured to deliver the gas flow at a driving pressure to flow around the posterior margin of the nasal septum and out of the other nostril of the subject; the delivery unit comprises a nosepiece (30; 58; 82; 102; 132) which includes the outlet and a sealing member for providing a fluid tight seal between the outlet and the one nostril; and the delivery device further comprises: an outlet unit comprising a nosepiece for fitting to the other nostril and a flow resistor for providing a flow resistance to the gas flow exiting the other nostril so as in use to maintain a positive dynamic pressure upstream thereof. a closure unit adapted to cause closure of the oropharyngeal velum of the subject; and a delivery unit adapted to deliver a gas flow and substance to one of the nostrils of the subject, wherein the delivery unit includes an outlet through which the gas flow and substance is in use delivered to the one nostril; the delivery unit is configured to deliver the gas flow at a driving pressure to flow around the posterior margin of the nasal septum and out of the other nostril of the subject; the delivery unit comprises a nosepiece (30; 58; 82; 102; 132) which includes the outlet and a sealing member for providing a fluid tight seal between the outlet and the one nostril; and the delivery device further comprises: an outlet unit comprising a nosepiece for fitting to the other nostril and a flow resistor for providing a flow resistance to the gas flow exiting the other nostril so as in use to maintain a positive dynamic pressure upstream thereof. an outlet unit comprising a nosepiece for fitting to the other nostril and a flow resistor for providing a flow resistance to the gas flow exiting the other nostril so as in use to maintain a positive dynamic pressure upstream thereof.
A processor, comprising: a plurality of cores to execute instructions, wherein each core of the plurality of cores comprises: a Level-1, L1, instruction cache to store the instructions and an L1 data cache to store corresponding data; a plurality of vector registers to store a plurality of packed data elements, including single-precision floating-point data elements and reduced precision floating-point data elements having fewer mantissa bits than the single-precision floating point data elements and a same number of exponent bits as the single-precision floating point format data elements; and execution circuitry to execute an instruction to generate a dot product with a first pair of the reduced precision floating-point data elements and a corresponding second pair of the reduced precision floating-point data elements, the execution circuitry to: generate a plurality of single precision floating-point products corresponding to the first pair and the second pair of the reduced precision floating-point data elements; and accumulate the plurality of single precision floating-point products to generate a single precision floating-point result data element. a Level-1, L1, instruction cache to store the instructions and an L1 data cache to store corresponding data; a plurality of vector registers to store a plurality of packed data elements, including single-precision floating-point data elements and reduced precision floating-point data elements having fewer mantissa bits than the single-precision floating point data elements and a same number of exponent bits as the single-precision floating point format data elements; and execution circuitry to execute an instruction to generate a dot product with a first pair of the reduced precision floating-point data elements and a corresponding second pair of the reduced precision floating-point data elements, the execution circuitry to: generate a plurality of single precision floating-point products corresponding to the first pair and the second pair of the reduced precision floating-point data elements; and accumulate the plurality of single precision floating-point products to generate a single precision floating-point result data element. generate a plurality of single precision floating-point products corresponding to the first pair and the second pair of the reduced precision floating-point data elements; and accumulate the plurality of single precision floating-point products to generate a single precision floating-point result data element.
A support section for a step of an external footpath, wherein the support section forms the vertical surface of the step and this area is a vertical plate surface (1.1, 11.1), characterised by the fact that the support section comprises a tube through which a rod can be inserted vertically.
An in-vitro method for generation of a cell composition of mesencephalic dopaminergic progenitor cells from a starting cell composition comprising pluripotent and/or multipotent stem cells, the method comprising the steps of A) Differentiating said pluripotent and/or multipotent stem cells into mesencephalic dopaminergic progenitor cells, thereby generating a cell population comprising mesencephalic dopaminergic progenitor cells and other cells B) Dissociating the differentiated cells of step A) into a single cell suspension C) Enriching said mesencephalic dopaminergic progenitor cells by using an antigen binding molecule specific for the CD47 antigen for positive selection of said mesencephalic dopaminergic progenitor cells in said single cell suspension. A) Differentiating said pluripotent and/or multipotent stem cells into mesencephalic dopaminergic progenitor cells, thereby generating a cell population comprising mesencephalic dopaminergic progenitor cells and other cells B) Dissociating the differentiated cells of step A) into a single cell suspension C) Enriching said mesencephalic dopaminergic progenitor cells by using an antigen binding molecule specific for the CD47 antigen for positive selection of said mesencephalic dopaminergic progenitor cells in said single cell suspension.
A suture delivery device for percutaneously suturing tissue comprising: an elongated deployment member having a guide member coaxially disposed over a shaft member, the elongated deployment member having a proximal end, a distal end, a needle deployment member carried at a distal end of the elongated deployment member, characterised in that the needle deployment member comprises: a lower band serving as a guide for a plurality of needles and an upper band, in which the lower band is positioned at the distal end of the needle deployment member at a distance from the upper band positioned at the proximal end of the needle deployment member, the distance between the upper band and the lower band adjusting a piercing angle of a plurality of needles in a proximal direction, the plurality of needles being releasably secured to the needle deployment member, in which each needle is routed coaxially within the distal end of the needle deployment member, and a needle pusher configured to releasably secure a non-piercing end of each of the plurality of needles, the needle pusher being driven by a link coaxially disposed within the shaft member, in which the needle pusher is configured to advance each needle through the distal end of the needle deployment member and coaxially over the proximal end of the needle deployment member to position the plurality of needles at the piercing angle in a proximal direction. an elongated deployment member having a guide member coaxially disposed over a shaft member, the elongated deployment member having a proximal end, a distal end, a needle deployment member carried at a distal end of the elongated deployment member, a lower band serving as a guide for a plurality of needles and an upper band, in which the lower band is positioned at the distal end of the needle deployment member at a distance from the upper band positioned at the proximal end of the needle deployment member, the distance between the upper band and the lower band adjusting a piercing angle of a plurality of needles in a proximal direction, the plurality of needles being releasably secured to the needle deployment member, in which each needle is routed coaxially within the distal end of the needle deployment member, and a needle pusher configured to releasably secure a non-piercing end of each of the plurality of needles, the needle pusher being driven by a link coaxially disposed within the shaft member, in which the needle pusher is configured to advance each needle through the distal end of the needle deployment member and coaxially over the proximal end of the needle deployment member to position the plurality of needles at the piercing angle in a proximal direction.
A sensing device, comprising: a sensor array comprising a plurality of sensors, each sensor having a length dimension and a width dimension and configured to generate a signal responsive to radiation incident on the sensor; and a filter array comprising a plurality of filters, each filter having a length dimension and a width dimension, the filter array disposed to filter light before it is incident on the sensor array, the filter array arranged relative to the sensor array such that, a first sensor of the sensor array receives radiation propagating through a first filter, and a second sensor of the sensor array receives radiation propagating through at least the first filter and a second filter, wherein the first filter and the second filter are each configured to pass a different range of wavelength; wherein a ratio of the length dimension of each filter to the length dimension of a corresponding sensor that receives light propagating through the filter, a ratio of the width dimension of each filter to the width dimension of a corresponding sensor that receives light propagating through the filter, or both, is a non-integer greater than 1. a sensor array comprising a plurality of sensors, each sensor having a length dimension and a width dimension and configured to generate a signal responsive to radiation incident on the sensor; and a filter array comprising a plurality of filters, each filter having a length dimension and a width dimension, the filter array disposed to filter light before it is incident on the sensor array, the filter array arranged relative to the sensor array such that, a first sensor of the sensor array receives radiation propagating through a first filter, and a second sensor of the sensor array receives radiation propagating through at least the first filter and a second filter, wherein the first filter and the second filter are each configured to pass a different range of wavelength; a first sensor of the sensor array receives radiation propagating through a first filter, and a second sensor of the sensor array receives radiation propagating through at least the first filter and a second filter, wherein the first filter and the second filter are each configured to pass a different range of wavelength; wherein a ratio of the length dimension of each filter to the length dimension of a corresponding sensor that receives light propagating through the filter, a ratio of the width dimension of each filter to the width dimension of a corresponding sensor that receives light propagating through the filter, or both, is a non-integer greater than 1.