mhurhangee/ep-ind-claims huggingface dataset:
An electrical connector terminal housing adapted for carrying an electrical terminal, comprising: a rear wall; a front wall; sidewalls longitudinally extending between the front and rear walls (16, 18); a first transverse wall and a second transverse wall longitudinally extending at least partially between the rear and front walls (16, 18); at least one hold-down beam between the first and second transverse walls (22, 24), including a ramp surface opposed to the first transverse wall, said beam adapted to engage the electrical terminal; a pocket defined between the first transverse wall and the hold-down beam and being adapted to accept a hold-down insert therein; the hold-down insert adapted to cooperate with the ramp surface to urge the hold-down beam against the electrical terminal to restrain lateral movement of the electrical terminal so as to reduce terminal-to-housing vibration; characterized in that said hold-down beam includes an aperture therein and the hold-down insert includes a retention feature for cooperating with said aperture to retain the hold-down insert in the pocket, wherein said retention feature is adapted to be trapped within said aperture. a rear wall; a front wall; sidewalls longitudinally extending between the front and rear walls (16, 18); a first transverse wall and a second transverse wall longitudinally extending at least partially between the rear and front walls (16, 18); at least one hold-down beam between the first and second transverse walls (22, 24), including a ramp surface opposed to the first transverse wall, said beam adapted to engage the electrical terminal; a pocket defined between the first transverse wall and the hold-down beam and being adapted to accept a hold-down insert therein; the hold-down insert adapted to cooperate with the ramp surface to urge the hold-down beam against the electrical terminal to restrain lateral movement of the electrical terminal so as to reduce terminal-to-housing vibration; characterized in that said hold-down beam includes an aperture therein and the hold-down insert includes a retention feature for cooperating with said aperture to retain the hold-down insert in the pocket, wherein said retention feature is adapted to be trapped within said aperture.
A drug-delivery device, comprising: a first reservoir for containing a first liquid that comprises or consists essentially of a first therapeutic agent; a second reservoir for containing a second liquid that comprises or consists essentially of a second therapeutic agent different from the first therapeutic agent; at least one cannula in fluid communication with the first and second reservoirs (100A, 100B); memory for storing a drug-delivery regimen; and a microprocessor for controlling a delivery of the first and second liquids to a patient through the at least one cannula based on an execution of the stored drug-delivery regimen. a first reservoir for containing a first liquid that comprises or consists essentially of a first therapeutic agent; a second reservoir for containing a second liquid that comprises or consists essentially of a second therapeutic agent different from the first therapeutic agent; at least one cannula in fluid communication with the first and second reservoirs (100A, 100B); memory for storing a drug-delivery regimen; and a microprocessor for controlling a delivery of the first and second liquids to a patient through the at least one cannula based on an execution of the stored drug-delivery regimen.
A switched capacitor power converter (30, 40, 50) comprising a set of three capacitors (C1, C2, C3); an input (32, 42, 52) for receiving an input voltage (Vin) an output (33, 43, 53) for outputting an output voltage (Vo) different to the input voltage, a plurality of switches configured to arrange the set of capacitors into a plurality of different subcircuit arrangements between the input and output for converting the input voltage to the output voltage; wherein the convertor includes a controller configured to sequentially switch the switches over three phases (Ph1, Ph2, Ph3), the phases corresponding to three subcircuit arrangements comprising a first subcircuit arrangement in which the set is connected to the input, a second subcircuit arrangement different to the first subcircuit arrangement and a third subcircuit arrangement, different to the first and second arrangements, in which the set is connected to the output, the subcircuit arrangements configured such that each of the capacitors in the set acts as a floating capacitor in which each of the capacitors in the set comprise two capacitor plates and the set is configured such that each plate is associated with a corresponding switch, wherein at least one of the capacitors in the set is connected to the input in each of the first, second and third subcircuit arrangements and the output voltage is provided to the output only in the third subcircuit arrangement, the subcircuit arrangements configured such that only one of the three capacitors is charged to a voltage greater than the input voltage.
A ferromagnetic tunnel junction structure comprising a structure having a tunnel barrier layer disposed between two ferromagnetic layers, the ferromagnetic layers comprise at least one of Fe, CoFe, Co 2 FeAl x Si 1-x (0 ≤ x ≤ 1) and Co 2 MnSi; characterized in that: the tunnel barrier layer is crystalline and has a -oriented epitaxial structure and is a non-magnetic material having a spinel structure.
An apparatus for treating insufflation gases prior to the use of said insufflation gases in a medical procedure involving a patient, said apparatus comprising or including: a) an insufflator configured to receive gases from a high-pressure gas supply and to control said gases pressure and said gases volumetric flow rate, b) humidification means, located proximal to said insufflator and in fluid communication with said insufflator, c) a transportation means in fluid communication with said humidification means, said transportation means having located within, throughout or around it heating means to heat said gases as said gases move through said transportation means, and d) delivery means in fluid communication to said transportation means, to deliver said gases to the interior of said patient, and wherein said delivery means is a cannula for insertion in an incision in said patient's abdomen, said cannula being connected to said transportation means by way of a connecting means, wherein said insufflator and said humidification means are housed in one enclosure. a) an insufflator configured to receive gases from a high-pressure gas supply and to control said gases pressure and said gases volumetric flow rate, b) humidification means, located proximal to said insufflator and in fluid communication with said insufflator, c) a transportation means in fluid communication with said humidification means, said transportation means having located within, throughout or around it heating means to heat said gases as said gases move through said transportation means, and d) delivery means in fluid communication to said transportation means, to deliver said gases to the interior of said patient, and wherein said delivery means is a cannula for insertion in an incision in said patient's abdomen, said cannula being connected to said transportation means by way of a connecting means, wherein said insufflator and said humidification means are housed in one enclosure.
A method for data integrity control comprising: - determining a demand for data integrity control for a service function of a service function entity in a service chaining scenario in which a service is provided via a service chain of a plurality of service function entities, and - requesting one or more of the plurality of service function entities in the service chain other than said service function entity to report on occurrence of a specific event during provision of said service, the specific event being relevant for said service function of said service function entity, and wherein the specific event comprises dropping or loss of data relating to said service. - determining a demand for data integrity control for a service function of a service function entity in a service chaining scenario in which a service is provided via a service chain of a plurality of service function entities, and - requesting one or more of the plurality of service function entities in the service chain other than said service function entity to report on occurrence of a specific event during provision of said service, the specific event being relevant for said service function of said service function entity, and wherein the specific event comprises dropping or loss of data relating to said service.
A disc-type rotary joint including a first part and a second part configured to rotate around a rotation axis against the first part, wherein the first part includes at least one first magnetic core, at least one sliding brush and at least one first capacitive data link component, the second part includes at least one second magnetic core configured for coupling power with the at least one first magnetic core, at least one sliding track configured for galvanic coupling with the at least one sliding brush, and at least one second capacitive data link component configured to transfer data from and/or to the at least one first capacitive data link component, and the at least one first magnetic core is mounted in a distance to the at least one second magnetic core forming an airgap between the first and second magnetic cores, within the first magnetic core is a first winding, and within the second magnetic core is a second winding, wherein the rotary joint is a disc-type rotary joint, and the at least one sliding track is arranged radially between the at least one second magnetic core and the at least one second capacitive data link component, characterized in that the first part and the second part are arranged on opposing sides of a common plane orthogonal to the rotation axis and at least one sliding track has a distance to at least one first capacitive data link component or at least one second capacitive data link component which is larger than the distance between the at least one sliding track and at least one first magnetic core or at least one second magnetic core. the first part includes at least one first magnetic core, at least one sliding brush and at least one first capacitive data link component, the second part includes at least one second magnetic core configured for coupling power with the at least one first magnetic core, at least one sliding track configured for galvanic coupling with the at least one sliding brush, and at least one second capacitive data link component configured to transfer data from and/or to the at least one first capacitive data link component, and the at least one first magnetic core is mounted in a distance to the at least one second magnetic core forming an airgap between the first and second magnetic cores, within the first magnetic core is a first winding, and within the second magnetic core is a second winding, wherein the rotary joint is a disc-type rotary joint, and the at least one sliding track is arranged radially between the at least one second magnetic core and the at least one second capacitive data link component, characterized in that the first part and the second part are arranged on opposing sides of a common plane orthogonal to the rotation axis and at least one sliding track has a distance to at least one first capacitive data link component or at least one second capacitive data link component which is larger than the distance between the at least one sliding track and at least one first magnetic core or at least one second magnetic core.
A method of manufacturing a shaker screen, the method comprising: providing a screen frame (420, 610, 720) having an initial and intentionally bowed shape; pre-tensioning a mesh screen (208, 310, 410); and mounting the pre-tensioned mesh screen (208, 310, 410) to a top side of the bowed screen frame (420, 610, 720), wherein tension in the pre-tensioned mesh screen (208, 310, 410) pulls the bowed screen frame (420, 610, 720) into a substantially flat shape. providing a screen frame (420, 610, 720) having an initial and intentionally bowed shape; pre-tensioning a mesh screen (208, 310, 410); and mounting the pre-tensioned mesh screen (208, 310, 410) to a top side of the bowed screen frame (420, 610, 720), wherein tension in the pre-tensioned mesh screen (208, 310, 410) pulls the bowed screen frame (420, 610, 720) into a substantially flat shape.
An asymmetric thermal print head for printing images to a substrate by heating and transferring portions of a print ribbon to the substrate, the thermal print head comprising a print head body; a plurality of print elements supported on the print head body and aligned along a first axis, each print element including a pair of electrodes that are spaced apart from one another and a discrete heater portion between and coupled to the pair of electrodes, the discrete heater portion having a burn width measured along the first axis and a burn length measured along a second axis that is perpendicular to the first axis, the burn length defined by a spacing between the pair of electrodes wherein the burn length is shorter than the burn width, such that the print elements are configured to produce a first print resolution corresponding to the first axis that is lower than a second print resolution corresponding to the second axis; and one or more control circuits configured to individually activate the print elements and to produce the first print resolution along an axis of the substrate parallel to the first axis and the second print resolution along an axis of the substrate parallel to the second axis.
A wind turbine blade, comprising: an outer airfoil shell defining an upper shell half, a lower shell half, a leading edge, and a trailing edge of the blade; and a spar disposed generally within the outer airfoil shell and defining an inner spar region and an outer spar region, the spar comprising: a first shear web generally extending between the upper and lower shell halves; and a second shear web generally extending between the upper and lower shell halves, the first and second shear webs being spaced from each other along at least a portion of the inner spar region, characterised in that the first and second shear webs (50, 52) converge toward each other at a first convergence rate such that there is a variation in the distance between the shear webs in at least a portion of the inner spar region adjacent the outer spar region, and the first and second shear (50, 52) webs converge toward each other at a second convergence rate in at least a portion of the outer spar region adjacent the inner spar region that is greater than the first convergence rate. an outer airfoil shell defining an upper shell half, a lower shell half, a leading edge, and a trailing edge of the blade; and a spar disposed generally within the outer airfoil shell and defining an inner spar region and an outer spar region, the spar comprising: a first shear web generally extending between the upper and lower shell halves; and a second shear web generally extending between the upper and lower shell halves, the first and second shear webs being spaced from each other along at least a portion of the inner spar region, a first shear web generally extending between the upper and lower shell halves; and a second shear web generally extending between the upper and lower shell halves, the first and second shear webs being spaced from each other along at least a portion of the inner spar region, characterised in that the first and second shear webs (50, 52) converge toward each other at a first convergence rate such that there is a variation in the distance between the shear webs in at least a portion of the inner spar region adjacent the outer spar region, and the first and second shear (50, 52) webs converge toward each other at a second convergence rate in at least a portion of the outer spar region adjacent the inner spar region that is greater than the first convergence rate.
A flow control valve comprising a valve housing in which a control piston is guided with axial displacement, which control piston actuates at least one fluid-conducting connection between a fluid inlet and an outflow opening, an armature that can be operated by a proportional solenoid acting on the control piston, a pressure detecting piston serving for the action of the armature on the control piston, the fluid inlet being connected in a fluid-conducting manner to a pressure detecting chamber by means of a pressure detecting duct in such a way that the fluid pressure which prevails in the pressure detecting chamber applies a force to the pressure detecting piston and the control piston in the direction of relieving the proportional solenoid, an additional fluid-conducting connection between the fluid inlet and another outflow opening being actuated, the control piston being at least partially penetrated by the pressure detecting piston, and the pressure detecting piston defining a metering orifice in the region of its free front side with a passage opening of the control piston.
A polymer-supported chelating agent, comprising polyisobutylene having a terminal group, the terminal group being a chelating agent, wherein the polymer-supported chelating agent has the formula:
Device for providing clean air in a beverage filling plant, comprising an inflow duct with at least one filter (21, 23, 24) for pretreating the air sucked in via a supply air inlet, wherein a first outflow duct with at least one filter for treating the air pretreated in the inflow duct adjoins the inflow duct for feeding into a filling clean room of the beverage filling plant, whereby clean air can be provided via the first outflow duct, characterised in that a second outflow duct for conditioning the air pre-conditioned in the inflow duct adjoins the inflow duct for feeding into a blowing clean room for blow-moulding plastic containers, wherein a dehumidification device (41, 42) for dehumidifying the pre-conditioned air is arranged in the second outflow duct, whereby dried clean air can be provided via the second outflow duct.
A method for determining an amplitude of a braking portion of a waveform of a driving voltage signal for a linear resonant actuator, the method comprising: obtaining, by a processor, a measure of a characteristic of the linear resonant actuator, the characteristic being different from a quality factor of the linear resonant actuator; determining, by the processor and based on the measure of the characteristic, the quality factor; determining, by the processor and based on the quality factor, the amplitude of the braking portion of the waveform of the driving voltage signal; and setting, by the processor and based on the amplitude, data for a driving voltage signal circuitry to cause the driving voltage signal circuitry to produce the driving voltage signal, the driving voltage signal having the waveform in which the braking portion has the amplitude; wherein the method is performed in response to an event associated with a product that includes the linear resonant actuator; and the event comprises at least one of a mechanical shock to the product, a charging of a power supply of the product, or a duration of time associated with a lack of a particular activity associated with the product, the duration of time being greater than five minutes, the particular activity being at least one of a motion of the product or an input signal from a user of the product. obtaining, by a processor, a measure of a characteristic of the linear resonant actuator, the characteristic being different from a quality factor of the linear resonant actuator; determining, by the processor and based on the measure of the characteristic, the quality factor; determining, by the processor and based on the quality factor, the amplitude of the braking portion of the waveform of the driving voltage signal; and setting, by the processor and based on the amplitude, data for a driving voltage signal circuitry to cause the driving voltage signal circuitry to produce the driving voltage signal, the driving voltage signal having the waveform in which the braking portion has the amplitude; wherein the method is performed in response to an event associated with a product that includes the linear resonant actuator; and the event comprises at least one of a mechanical shock to the product, a charging of a power supply of the product, or a duration of time associated with a lack of a particular activity associated with the product, the duration of time being greater than five minutes, the particular activity being at least one of a motion of the product or an input signal from a user of the product. the method is performed in response to an event associated with a product that includes the linear resonant actuator; and the event comprises at least one of a mechanical shock to the product, a charging of a power supply of the product, or a duration of time associated with a lack of a particular activity associated with the product, the duration of time being greater than five minutes, the particular activity being at least one of a motion of the product or an input signal from a user of the product.
A method for allocating WLAN channel resources, comprising: obtaining subcarrier allocation information, wherein the subcarrier allocation information is used to identify a subcarrier or a subcarrier group used to bear data, wherein channel quality of a subchannel where the subcarrier or the subcarrier group is located is greater than or equal to a judgment threshold; and sending data to a receiving device on the subcarrier or the subcarrier group according to the subcarrier allocation information, characterized in that the subcarrier allocation information comprises: an identifier of a first subcarrier or a first subcarrier group of multiple successively allocated subcarriers or subcarrier groups and the quantity of the multiple subcarriers or the multiple subcarrier groups; wherein the obtaining subcarrier allocation information comprises: receiving a channel state information, CSI, feedback message sent by the receiving device, wherein the CSI feedback message carries the subcarrier allocation information. obtaining subcarrier allocation information, wherein the subcarrier allocation information is used to identify a subcarrier or a subcarrier group used to bear data, wherein channel quality of a subchannel where the subcarrier or the subcarrier group is located is greater than or equal to a judgment threshold; and sending data to a receiving device on the subcarrier or the subcarrier group according to the subcarrier allocation information, characterized in that the subcarrier allocation information comprises: an identifier of a first subcarrier or a first subcarrier group of multiple successively allocated subcarriers or subcarrier groups and the quantity of the multiple subcarriers or the multiple subcarrier groups; wherein the obtaining subcarrier allocation information comprises: receiving a channel state information, CSI, feedback message sent by the receiving device, wherein the CSI feedback message carries the subcarrier allocation information.