mhurhangee/ep-ind-claims huggingface dataset:
A medical/surgical irrigator, comprising: a pump for pumping an irrigating fluid; and a tip assembly for application to a patient, the tip assembly having a discharge tube connected to the pump for receiving the irrigating fluid pumped by the pump through which the irrigating fluid can be applied to a medical/surgical site on a patient; wherein the pump is contained in a pump housing, the pump housing having at least one feature to facilitate a releasable coupling of the pump housing to a surgical tool with a motor having a drive spindle, the surgical tool able to, through the drive spindle, drive a surgical implement other than the pump; wherein the pump includes a drive shaft having features that facilitate the releasable engagement of said drive shaft with the surgical tool motor drive spindle so that the actuation of the surgical tool motor drive spindle results in the actuation of said pump; and wherein the tip assembly is separate from said pump housing; characterized in that: a flexible first supply tube extends from said pump housing to said tip assembly discharge tube so as to allow the tip assembly to be moved relative to said pump housing and the surgical tool while providing a fluid conduit for the irrigation fluid pumped by said pump to the discharge tube. a pump for pumping an irrigating fluid; and a tip assembly for application to a patient, the tip assembly having a discharge tube connected to the pump for receiving the irrigating fluid pumped by the pump through which the irrigating fluid can be applied to a medical/surgical site on a patient; wherein the pump is contained in a pump housing, the pump housing having at least one feature to facilitate a releasable coupling of the pump housing to a surgical tool with a motor having a drive spindle, the surgical tool able to, through the drive spindle, drive a surgical implement other than the pump; wherein the pump includes a drive shaft having features that facilitate the releasable engagement of said drive shaft with the surgical tool motor drive spindle so that the actuation of the surgical tool motor drive spindle results in the actuation of said pump; and wherein the tip assembly is separate from said pump housing; characterized in that: a flexible first supply tube extends from said pump housing to said tip assembly discharge tube so as to allow the tip assembly to be moved relative to said pump housing and the surgical tool while providing a fluid conduit for the irrigation fluid pumped by said pump to the discharge tube. a flexible first supply tube extends from said pump housing to said tip assembly discharge tube so as to allow the tip assembly to be moved relative to said pump housing and the surgical tool while providing a fluid conduit for the irrigation fluid pumped by said pump to the discharge tube.
A flange frame (3110, 3110a, 3210, 3310, 3120, 3220, 3320) for preassembling and/or for transporting and/or for assembling a tower segment (210, 220, 230) for a wind turbine and/or of a tower section of a wind turbine and/or of a tower of a wind turbine, comprising - two flange sections (410, 420, 430) for fastening the flange frame (3110, 3110a, 3210, 3310, 3120, 3220, 3320) in a releasable manner on a horizontal flange (211, 221, 231) of a tower segment (210, 220, 230), - a lifting bolt for the engagement of a sling-like lifting unit by virtue of the sling-like lifting unit being guided over an end of the lifting bolt and butting against part of an outer circumferential surface of the lifting bolt, wherein the lifting bolt is designed as a protrusion which projects from a surface, - a supporting element (440, 450) for supporting the flange frame (3110, 3110a, 3210, 3310, 3120, 3220, 3320) on a standing surface, - a transportation module (400, 400a) and a lifting module (500, 500a), wherein the transportation module (400, 400a) and the lifting module (500, 500a) are connected to one another in a releasable manner, wherein the lifting module (500, 500a) comprises the lifting bolt. - two flange sections (410, 420, 430) for fastening the flange frame (3110, 3110a, 3210, 3310, 3120, 3220, 3320) in a releasable manner on a horizontal flange (211, 221, 231) of a tower segment (210, 220, 230), - a lifting bolt for the engagement of a sling-like lifting unit by virtue of the sling-like lifting unit being guided over an end of the lifting bolt and butting against part of an outer circumferential surface of the lifting bolt, wherein the lifting bolt is designed as a protrusion which projects from a surface, - a supporting element (440, 450) for supporting the flange frame (3110, 3110a, 3210, 3310, 3120, 3220, 3320) on a standing surface, - a transportation module (400, 400a) and a lifting module (500, 500a), wherein the transportation module (400, 400a) and the lifting module (500, 500a) are connected to one another in a releasable manner, wherein the lifting module (500, 500a) comprises the lifting bolt.
A method for manufacturing a Z-directed component for insertion into a mounting hole in a printed circuit board, comprising: simultaneously extruding a plurality of materials in the cross-sectional structure of the Z-directed component to form an extruded object with the plurality of materials arranged relative to each other in their operative positions to the Z-directed component; staggering said extrusion of a first portion of at least one of the materials in the extruded object relative to said extrusion of a second portion of said at least one of the materials in the extruded object. simultaneously extruding a plurality of materials in the cross-sectional structure of the Z-directed component to form an extruded object with the plurality of materials arranged relative to each other in their operative positions to the Z-directed component; staggering said extrusion of a first portion of at least one of the materials in the extruded object relative to said extrusion of a second portion of said at least one of the materials in the extruded object.
Process of obtaining a nanostructured complex (CFl-1), CHARACTERIZED in that it is by chemical synthesis, comprising the following steps: (a) Preparing ammonium phosphate dibasic [(NH 4) 2 HPO 4] in situ in the presence of ammonia and orthophosphoric acid, in a mechanical homogenizer with minimum power of 500 W, at a temperature range between 25 and 55 °C up to neutralization; (b) Mixing two salts: magnesium chloride, at 1-3% by mass and ammonium phosphate dibasic obtained in step (a) at concentration of 1-4% by mass between 22 and 30 °C and pH 5-7 in a mechanical homogenizer with minimum power of 500 W in a variable rotation range between 7000 and 15000 rpm; (c) Applying a pressure level to the mixture obtained in step (b) in a high pressure homogenizer with the homogenization valve with variable pressure between 400 and 700 bar and in the second stage, the homogenizing valve with variable pressure between 50 and 70 bar for up to 1 to 3 cycles; (d) Cooling the suspension obtained at step (c) at a temperature range comprised between 0 and 20 °C; (e) Precipitating; and (f) Washing the crystals with distilled and sterile water and drying at a temperature range between 30 and 40 °C in a time interval between 24 and 72 hours. (a) Preparing ammonium phosphate dibasic [(NH 4) 2 HPO 4] in situ in the presence of ammonia and orthophosphoric acid, in a mechanical homogenizer with minimum power of 500 W, at a temperature range between 25 and 55 °C up to neutralization; (b) Mixing two salts: magnesium chloride, at 1-3% by mass and ammonium phosphate dibasic obtained in step (a) at concentration of 1-4% by mass between 22 and 30 °C and pH 5-7 in a mechanical homogenizer with minimum power of 500 W in a variable rotation range between 7000 and 15000 rpm; (c) Applying a pressure level to the mixture obtained in step (b) in a high pressure homogenizer with the homogenization valve with variable pressure between 400 and 700 bar and in the second stage, the homogenizing valve with variable pressure between 50 and 70 bar for up to 1 to 3 cycles; (d) Cooling the suspension obtained at step (c) at a temperature range comprised between 0 and 20 °C; (e) Precipitating; and (f) Washing the crystals with distilled and sterile water and drying at a temperature range between 30 and 40 °C in a time interval between 24 and 72 hours.
Method for the operation of vehicles (10, 20), in particular of railbound vehicles, - in which the advancing of a first vehicle to a second vehicle is detected on the part of the second vehicle, - in which a warning message is transmitted by the second vehicle triggered by the detection of the advancing, - in which a braking procedure is initiated on the part of the first vehicle as a consequence of the warning message transmitted from the second vehicle, characterised in that in the event that the second vehicle is stationary, the advancing of the first vehicle to the stationary second vehicle is detected on the part of the second vehicle based on standstill monitoring of the second vehicle. - in which the advancing of a first vehicle to a second vehicle is detected on the part of the second vehicle, - in which a warning message is transmitted by the second vehicle triggered by the detection of the advancing, - in which a braking procedure is initiated on the part of the first vehicle as a consequence of the warning message transmitted from the second vehicle,
A base station that requests cooperative transmission of a second base station forming a nearby cell that is near a mobile station, the base station comprising: an acquirer that acquires a reception power for each nearby cell of the mobile station; and a selector that based on a value of each acquired reception power, selects a cell of which the cooperative transmission is to be requested from among the nearby cells; characterized in that the selector selects the cell based on the value of each reception power weighted by a coefficient of each nearby cell; and in that the base station further comprises: a setter that sets the coefficient of each nearby cell, wherein the setter, for the nearby cell having a relatively small delay of intercellular communication with a local cell of the base station, sets a coefficient that is larger than that set for the nearby cell having a relatively large delay. an acquirer that acquires a reception power for each nearby cell of the mobile station; and a selector that based on a value of each acquired reception power, selects a cell of which the cooperative transmission is to be requested from among the nearby cells; characterized in that the selector selects the cell based on the value of each reception power weighted by a coefficient of each nearby cell; and in that the base station further comprises: a setter that sets the coefficient of each nearby cell, wherein the setter, for the nearby cell having a relatively small delay of intercellular communication with a local cell of the base station, sets a coefficient that is larger than that set for the nearby cell having a relatively large delay. a setter that sets the coefficient of each nearby cell, wherein the setter, for the nearby cell having a relatively small delay of intercellular communication with a local cell of the base station, sets a coefficient that is larger than that set for the nearby cell having a relatively large delay.
A controller for a control apparatus, the controller comprising a chassis which is a ring type in shape, the controller being characterised in that it comprises: an operation member which is slidable along an extension direction of the chassis with a predetermined position as a reference, is rotatable in a circumferential direction of the chassis with the predetermined position as the reference, and at least a part of which is fitted into a recess section provided in an external surface of the chassis; a second sensor section operable to sense an amount of sliding of the operation member along the extension direction, and an amount of rotation of the operation member in the circumferential direction; and a communication section operable to transmit a signal to the control apparatus indicating the operation of the operation member in dependence upon the sensed sliding and/or rotation. an operation member which is slidable along an extension direction of the chassis with a predetermined position as a reference, is rotatable in a circumferential direction of the chassis with the predetermined position as the reference, and at least a part of which is fitted into a recess section provided in an external surface of the chassis; a second sensor section operable to sense an amount of sliding of the operation member along the extension direction, and an amount of rotation of the operation member in the circumferential direction; and a communication section operable to transmit a signal to the control apparatus indicating the operation of the operation member in dependence upon the sensed sliding and/or rotation.
A method of testing central heating and/or cooling system water for the concentration of molybdate, the method comprising the steps of: using a first colour-change dip test to test for the concentration of iron in the central heating and/or cooling system water, and comparing the colour of the first colour-change dip test to an iron testing reference to assess an iron concentration; using a second colour-change dip test (one of 12c-12f) to test for the concentration of molybdate in the central heating and/or cooling system water, and comparing the colour of the second colour-change dip test (one of 12c-12f) to a molybdate testing reference (14c-14f), and assessing the molybdate concentration based on the comparison of the second dip test (one of 12c-12f) to the reference (14c-14f), and based on the assessed concentration of iron, in which the molybdate testing reference (14c-14f) comprises a plurality of colour reference scales, a colour reference scale being selected from the plurality of colour reference scales (14c-14f) to be used in the assessment of molybdate concentration, based on the assessed concentration of iron, and in which assessment is carried out by image processing software based on a photograph of the colour-change dip tests alongside the references. using a first colour-change dip test to test for the concentration of iron in the central heating and/or cooling system water, and comparing the colour of the first colour-change dip test to an iron testing reference to assess an iron concentration; using a second colour-change dip test (one of 12c-12f) to test for the concentration of molybdate in the central heating and/or cooling system water, and comparing the colour of the second colour-change dip test (one of 12c-12f) to a molybdate testing reference (14c-14f), and assessing the molybdate concentration based on the comparison of the second dip test (one of 12c-12f) to the reference (14c-14f), and based on the assessed concentration of iron, in which the molybdate testing reference (14c-14f) comprises a plurality of colour reference scales, a colour reference scale being selected from the plurality of colour reference scales (14c-14f) to be used in the assessment of molybdate concentration, based on the assessed concentration of iron, and in which assessment is carried out by image processing software based on a photograph of the colour-change dip tests alongside the references.
An electrode assembly comprising a combination of two or more types of electrode unit having different areas, the two or more types of electrode unit being stacked so as to form a stepped portion therebetween, wherein a positive electrode and a negative electrode are formed to face each other at an interface between the electrode units, and Equation 1 is satisfied: N n / P n ≤ N n / P n + 1, where n is an integer not less than 1, N n is reversible capacitance per unit area of the negative electrode of the electrode unit that is the n-th largest in area, P n is reversible capacitance per unit area of the positive electrode of the electrode unit that is the n-th largest in area, and P n+1 is reversible capacitance per unit area of the positive electrode of the electrode unit that is the (n+1) th largest in area. where n is an integer not less than 1, N n is reversible capacitance per unit area of the negative electrode of the electrode unit that is the n-th largest in area, P n is reversible capacitance per unit area of the positive electrode of the electrode unit that is the n-th largest in area, and P n+1 is reversible capacitance per unit area of the positive electrode of the electrode unit that is the (n+1) th largest in area.
A peripheral device package for use in a host computing device, the peripheral device package comprising: a plurality of compute elements; a plurality of resources shared by the plurality of compute elements; a datastructure stored in a hidden memory of the peripheral device package, the data structure holding metadata about ownership of the resources of the peripheral device package by a plurality of user runtime processes (212, 214) of the host computing device which use the compute elements, at least one of the user runtime processes (212, 214) being a secure user runtime process; and a command processor configured to use the datastructure to enforce isolation of the resources used by the secure user runtime process; wherein the command processor is configured to use the datastructure to ensure trusted execution of the secure user runtime process on the peripheral device by, when a request is received to create a secure channel on the peripheral device package, for use by the secure user runtime process, checking the datastructure to find whether one or more resources associated with the request are protected from direct access by the host, and are free, and if the check fails, failing the request, and if the check succeeds, implementing the request and updating the datastructure a plurality of compute elements; a plurality of resources shared by the plurality of compute elements; a datastructure stored in a hidden memory of the peripheral device package, the data structure holding metadata about ownership of the resources of the peripheral device package by a plurality of user runtime processes (212, 214) of the host computing device which use the compute elements, at least one of the user runtime processes (212, 214) being a secure user runtime process; and a command processor configured to use the datastructure to enforce isolation of the resources used by the secure user runtime process; wherein the command processor is configured to use the datastructure to ensure trusted execution of the secure user runtime process on the peripheral device by, when a request is received to create a secure channel on the peripheral device package, for use by the secure user runtime process, checking the datastructure to find whether one or more resources associated with the request are protected from direct access by the host, and are free, and if the check fails, failing the request, and if the check succeeds, implementing the request and updating the datastructure
Apparatus for electrochemical deposition on to a surface of a substrate having features formed in that surface, the substrate having a conducting seed layer pre-deposited on the feature surface; the apparatus including an anode electrode; a support for supporting the substrate with its one surface exposed at a location, the support and the anode electrode being relatively movable to alter the gap between the anode electrode and the location to define a chamber between them; and an electrical power source with an ohmic contact to the seed layer for creating a potential difference across the gap wherein the apparatus further includes a seal for sealing with the seed layer to define the chamber; a fluid supply for the chamber; and a fluid inlet and a fluid outlet to the chamber, wherein the fluid outlet is distinct from the fluid inlet, wherein the apparatus further includes a control for varying the chemical composition of the fluid in accordance with the degree to which the features have been plated. the apparatus including an anode electrode; a support for supporting the substrate with its one surface exposed at a location, the support and the anode electrode being relatively movable to alter the gap between the anode electrode and the location to define a chamber between them; and an electrical power source with an ohmic contact to the seed layer for creating a potential difference across the gap wherein the apparatus further includes a seal for sealing with the seed layer to define the chamber; a fluid supply for the chamber; and a fluid inlet and a fluid outlet to the chamber, wherein the fluid outlet is distinct from the fluid inlet, wherein the apparatus further includes a control for varying the chemical composition of the fluid in accordance with the degree to which the features have been plated.
A method implemented on a computer having at least one processor, a storage, and a communication platform for human-like vehicle control for an autonomous vehicle, comprising: receiving recorded human driving data, wherein the recorded human driving data comprises vehicle state data, vehicle control data, and environment data; generating, for each piece of the recorded human driving data, a vehicle kinematic model based vehicle control signal based on the vehicle state data and the vehicle control data associated with that piece of the recorded human driving data in accordance with a vehicle kinematic model; obtaining a human-like vehicle control model via machine learning based on the recorded human driving data and the vehicle kinematic model based vehicle control signal generated based on the vehicle kinematic model, wherein the human-like vehicle control model is to be used to generate a human-like vehicle control signal with respect to a target motion of the autonomous vehicle to achieve human-like vehicle control behavior. receiving recorded human driving data, wherein the recorded human driving data comprises vehicle state data, vehicle control data, and environment data; generating, for each piece of the recorded human driving data, a vehicle kinematic model based vehicle control signal based on the vehicle state data and the vehicle control data associated with that piece of the recorded human driving data in accordance with a vehicle kinematic model; obtaining a human-like vehicle control model via machine learning based on the recorded human driving data and the vehicle kinematic model based vehicle control signal generated based on the vehicle kinematic model, wherein the human-like vehicle control model is to be used to generate a human-like vehicle control signal with respect to a target motion of the autonomous vehicle to achieve human-like vehicle control behavior.