mhurhangee/ep-ind-claims huggingface dataset:
A network communication logic comprising: - a current version of a connection driver; - an access to a memory storing a previous version of the connection driver; wherein the network communication logic is configured to: - automatically provide (410a, 410b, 410c) a determination that the current version of the connection driver is not operative to connect a device to the network; - pursuant to said determination, automatically trigger a replacement of the current version of the connection driver by the previous version of the connection driver and restart the connection of the device wherein automatically provide a determination that the current version of the connection driver is not operative to connect a device to the network comprises changing a flag of choice of the connection driver from the current version to the previous version, and automatically triggering an access to the previous version of the connection driver comprises, on the flag being in a previous version state, triggering a call on the previous version of the connection driver. - a current version of a connection driver; - an access to a memory storing a previous version of the connection driver; - automatically provide (410a, 410b, 410c) a determination that the current version of the connection driver is not operative to connect a device to the network; - pursuant to said determination, automatically trigger a replacement of the current version of the connection driver by the previous version of the connection driver and restart the connection of the device wherein automatically provide a determination that the current version of the connection driver is not operative to connect a device to the network comprises changing a flag of choice of the connection driver from the current version to the previous version, and automatically triggering an access to the previous version of the connection driver comprises, on the flag being in a previous version state, triggering a call on the previous version of the connection driver.
A valve unit for modulating pressure in a compressed air brake system, with an inlet valve and an outlet valve which are embodied as diaphragm valves, and via which a brake pressure output can be connected to or shut off from a brake pressure input or a vent output, and with two pilot valves (8, 9) embodied as 3/2 way solenoid valves, via which in each case a control chamber (31, 32) adjoining the diaphragm (17, 18) of the assigned diaphragm valve (6, 7) can be subjected to a control pressure via a control pressure line (33, 34), wherein the diaphragm valves (6, 7) are arranged with parallel actuation axes (15, 16) radially adjacent to each other in a valve housing, and the diaphragms (17, 18) of the diaphragm valves (6, 7) are each clamped between two housing parts (11', 14") via a ring bead (22, 23) inserted into a housing side ring groove (20', 21') and oriented axially on a pilot valve side, wherein in the ring groove (20', 21') or immediately adjacent to the ring groove (20', 21') of at least one diaphragm valve (6, 7) an annular circumferential recess (71, 71') is arranged to receive displaced bead material of the relevant diaphragm (17, 18), characterized in that the housing part averted from the pilot valves (8, 9) respectively has a stepped edge groove (68, 74), the radial inner groove section (69, 75) of which flushly receives a support disk for the relevant diaphragm, and the adjacent radial exterior groove section (70, 76) of which axially and radially comprises the ring bead of the diaphragm and limits an annular circumferential radial recess (71, 71').
System comprising a package container for food products and a device for sterilization of the interior surface of the packaging container with an electron beam, comprising an emitter provided with an electron exit window, said emitter being adapted to emit charge carriers, such as electrons, through the electron exit window, said electrons forming an electron cloud, wherein the device comprises at least one outlet adapted to provide a flow of sterile gaseous medium adapted to maintain a local aseptic zone around at least an emitter portion including the electron exit window, thus preventing any flow of medium from outside the local aseptic zone from coming into the local aseptic zone, wherein the emitter portion has a first end connecting to the rest of the emitter and a second end comprising the electron exit window, and wherein the outlet is arranged such that the sterile gaseous medium is flowing along the emitter portion in a direction from the first end to the second end, wherein the emitter and the packaging container are adapted to perform a movement relatively to each other such that the emitter portion is temporarily inserted into the packaging container via an opening thereof, wherein the local aseptic zone is adapted to include the opening of the packaging container at least during the relative movement, wherein the emitter and the packaging container are adapted to perform the movement relatively to each other between first and second position, wherein the first position is a position in which the emitter is outside the packaging container, wherein the second position is a position in which the emitter portion is fully inserted into the packaging container, through the opening of the packaging container, for sterilization of the interior surface of the packaging container, the system being characterized in that, during a movement from the second to the first position, the flow of sterile gaseous medium is configured to be controlled such that a volume of sterile gaseous medium is added, through the outlet such that the opening of the packaging container and the emitter portion at least remain within the local aseptic zone, wherein the local aseptic zone is formed along an axis, wherein the emitter and the packaging container are adapted to move relatively to each other along the axis, and wherein the device comprises a plate, in a plane perpendicular to the axis, wherein the plate comprises the at least one outlet, and wherein the at least one outlet is provided around the first end of the emitter portion and is preferably basically ring-shaped.
Ophthalmological laser treatment system, comprising a laser source for producing laser radiation, a light projector for focusing the laser radiation onto a focus, a scanner system for moving the focus along a work line (p), and a monitoring system, which comprises a light detector, characterized in that the monitoring system is configured to monitor, by way of a light path (r) extending along a detection axis (rz) angled in relation to the optical axis (z) of the light projector, a monitored region (m) moving together with the focus, in order to detect objects (o) before they are met by focused laser radiation.
A deep groove ball bearing that comprises: an outer ring with an outer ring raceway groove on an inner diameter surface; an inner ring with an inner ring raceway groove on an outer diameter surface; a plurality of balls rollably arranged between the outer ring raceway groove and the inner ring raceway groove; and a seal member fixed to the outer ring and disposed in contact or non-contact with a seal groove formed in a shoulder portion of the inner ring to seal a space between the outer ring and the inner ring; wherein: an axial cross-sectional width of the deep groove ball bearing is smaller than a radial cross-sectional height of the deep groove ball bearing; a thickness (c) of the inner ring is greater than a thickness (d) of the outer ring; a pitch diameter of the ball is larger than a median diameter between an inner diameter of the inner ring and an outer diameter of the outer ring, characterized in that a radial dimension (b) between an outer diameter of the shoulder portion of the inner ring and an inner diameter of the seal member is greater than the thickness (d) of the outer ring. an outer ring with an outer ring raceway groove on an inner diameter surface; an inner ring with an inner ring raceway groove on an outer diameter surface; a plurality of balls rollably arranged between the outer ring raceway groove and the inner ring raceway groove; and a seal member fixed to the outer ring and disposed in contact or non-contact with a seal groove formed in a shoulder portion of the inner ring to seal a space between the outer ring and the inner ring; wherein: an axial cross-sectional width of the deep groove ball bearing is smaller than a radial cross-sectional height of the deep groove ball bearing; a thickness (c) of the inner ring is greater than a thickness (d) of the outer ring; a pitch diameter of the ball is larger than a median diameter between an inner diameter of the inner ring and an outer diameter of the outer ring, characterized in that a radial dimension (b) between an outer diameter of the shoulder portion of the inner ring and an inner diameter of the seal member is greater than the thickness (d) of the outer ring. an axial cross-sectional width of the deep groove ball bearing is smaller than a radial cross-sectional height of the deep groove ball bearing; a thickness (c) of the inner ring is greater than a thickness (d) of the outer ring; a pitch diameter of the ball is larger than a median diameter between an inner diameter of the inner ring and an outer diameter of the outer ring, characterized in that a radial dimension (b) between an outer diameter of the shoulder portion of the inner ring and an inner diameter of the seal member is greater than the thickness (d) of the outer ring.
An electrostatic discharge power rail clamp circuit comprising: a first power rail (4, 34); a second power rail (6, 36); a first node; an n-channel field effect transistor comprising a source and drain located in an isolated p-well in a semiconductor substrate, wherein the drain is connected to the first power rail and wherein the source and the isolated p-well are connected to the first node; a capacitor connected between the first node and the second power rail; a resistor connected between the first power rail and the first node; an inverter for controlling the gate of the field effect transistor, wherein the inverter has an input connected to the first node; and a silicon controlled rectifier connected between the first node and the second power rail for discharging an ESD current flowing through the field effect transistor to the second power rail. a first power rail (4, 34); a second power rail (6, 36); a first node; an n-channel field effect transistor comprising a source and drain located in an isolated p-well in a semiconductor substrate, wherein the drain is connected to the first power rail and wherein the source and the isolated p-well are connected to the first node; a capacitor connected between the first node and the second power rail; a resistor connected between the first power rail and the first node; an inverter for controlling the gate of the field effect transistor, wherein the inverter has an input connected to the first node; and a silicon controlled rectifier connected between the first node and the second power rail for discharging an ESD current flowing through the field effect transistor to the second power rail.
An electrochemical test sensor (100, 200) for detecting the concentration of an analyte in a fluid sample, the test sensor comprising: a non-conductive base (2, 102) having a top surface, a bottom surface, and a peripheral edge extending between the top and bottom surfaces; a trigger electrode (14, 114), a working electrode (10, 110), and a counter electrode (12, 112) overlying the non-conductive base, the trigger electrode adjacent to the peripheral edge of the base, electrically coupled in parallel with the counter electrode, and located upstream of the working electrode and counter electrode; a reactive layer (16, 116) on at least a portion of the working electrode and the counter electrode, the reactive layer including a reagent which comprises an enzyme for reacting with the analyte to produce electrons which are transferred to the working electrode, a protective layer (18, 118) overlying at least a portion of the trigger electrode (14, 114), the protective layer (18, 118) not compromising the analytical performance of the reagent; and the protective layer (18, 118) and the reactive layer (16, 116) being spaced a sufficient distance from each other so that they do not contact each other; and a lid (8, 108) overlying the base, the lid having a top surface, a bottom surface, and an outer edge extending between the top and bottom surfaces, the outer edge extending beyond the peripheral edge of the base. a non-conductive base (2, 102) having a top surface, a bottom surface, and a peripheral edge extending between the top and bottom surfaces; a trigger electrode (14, 114), a working electrode (10, 110), and a counter electrode (12, 112) overlying the non-conductive base, the trigger electrode adjacent to the peripheral edge of the base, electrically coupled in parallel with the counter electrode, and located upstream of the working electrode and counter electrode; a reactive layer (16, 116) on at least a portion of the working electrode and the counter electrode, the reactive layer including a reagent which comprises an enzyme for reacting with the analyte to produce electrons which are transferred to the working electrode, a protective layer (18, 118) overlying at least a portion of the trigger electrode (14, 114), the protective layer (18, 118) not compromising the analytical performance of the reagent; and the protective layer (18, 118) and the reactive layer (16, 116) being spaced a sufficient distance from each other so that they do not contact each other; and a lid (8, 108) overlying the base, the lid having a top surface, a bottom surface, and an outer edge extending between the top and bottom surfaces, the outer edge extending beyond the peripheral edge of the base.
A method comprising: receiving, at a client, a media presentation description, MPD, that includes an Extensible Markup Language, XML, element that indicates support, by a server, of MPD delta files; determining a name of an MPD delta file of the delta files supported by the server wherein the delta files supported by the server are given version numbers, version names, or sequence numbers that indicate which update in a plurality of updates the delta files represent; and sending, by the client, a hypertext transfer protocol, HTTP, GET request for the MPD delta file whose name has been determined, wherein the MPD delta file includes information that has changed since the last update of the MPD. receiving, at a client, a media presentation description, MPD, that includes an Extensible Markup Language, XML, element that indicates support, by a server, of MPD delta files; determining a name of an MPD delta file of the delta files supported by the server wherein the delta files supported by the server are given version numbers, version names, or sequence numbers that indicate which update in a plurality of updates the delta files represent; and sending, by the client, a hypertext transfer protocol, HTTP, GET request for the MPD delta file whose name has been determined, wherein the MPD delta file includes information that has changed since the last update of the MPD.
An air-cooled absorption machine using water as coolant, an aqueous solution of lithium bromide as absorbent, and fluid that supplies the primary energy, the machine having a hollow configuration of vertical development including: - at least one generator, - at least one condenser, - at least one evaporator, - at least one absorber, - at least one solution heat exchanger, - at least one solution storage tank and at least one coolant storage tank, - at least one mechanical or thermal solution pump, and - at least one fan, wherein said hollow configuration houses the absorbers and the condensers; and wherein - the fan is located on the top of the machine, on an upper side of the hollow configuration, propelling the air in a forced convection circulation through said hollow configuration; - said at least one generator is located in the upper part of the machine, above the absorber; - said absorber is located under the generator and above the solution pump, - the evaporator is located at the bottom of the machine; wherein the machine presents a single effect cycle configuration working with hot water as the energy source, characterized in that: - said absorber is an air-cooled array of finned tube exchanger wherein the aqueous solution of lithium bromide circulates absorbing water vapour in the shape of a vertically descending liquid film by means of a descending film former installed in the upper part of the tubes; and - the evaporator is of the flooded type. - at least one generator, - at least one condenser, - at least one evaporator, - at least one absorber, - at least one solution heat exchanger, - at least one solution storage tank and at least one coolant storage tank, - at least one mechanical or thermal solution pump, and - at least one fan, - the fan is located on the top of the machine, on an upper side of the hollow configuration, propelling the air in a forced convection circulation through said hollow configuration; - said at least one generator is located in the upper part of the machine, above the absorber; - said absorber is located under the generator and above the solution pump, - the evaporator is located at the bottom of the machine; - said absorber is an air-cooled array of finned tube exchanger wherein the aqueous solution of lithium bromide circulates absorbing water vapour in the shape of a vertically descending liquid film by means of a descending film former installed in the upper part of the tubes; and - the evaporator is of the flooded type.
A display device, comprising: a housing; a roller located within the housing; a display panel comprising a front surface and a rear surface; and a metallic plate coupled to the rear surface of the display panel and comprising an opening, wherein the metallic plate supports the display panel to prevent the display panel from being wrinkled, wherein the display panel and the metallic plate are wound on the roller, wherein the metallic plate further comprises a plurality of openings arranged in a plurality of rows which are aligned along a longitudinal direction of the roller, and wherein positions of openings of a first row are offset with respect to positions of openings of a second row adjacent to the first row such that adjacent openings of the first row are separated by the metallic plate which is vertically aligned with a center of an opening of the adjacent second row. a housing; a roller located within the housing; a display panel comprising a front surface and a rear surface; and a metallic plate coupled to the rear surface of the display panel and comprising an opening, wherein the metallic plate supports the display panel to prevent the display panel from being wrinkled, wherein the display panel and the metallic plate are wound on the roller, wherein the metallic plate further comprises a plurality of openings arranged in a plurality of rows which are aligned along a longitudinal direction of the roller, and wherein positions of openings of a first row are offset with respect to positions of openings of a second row adjacent to the first row such that adjacent openings of the first row are separated by the metallic plate which is vertically aligned with a center of an opening of the adjacent second row.
Mixed turf, positioned on a terrain and comprising: a synthetic turf lawn, natural turf placed within said synthetic turf lawn, said synthetic turf lawn comprising synthetic filaments suitable to simulate blades of turf and a media composed of a non-biodegradable membrane sustaining said synthetic filaments, said media being positioned inside said terrain and being in its entirety substantially draining, breathable and permeable to the roots of said natural turf and said mixed turf being characterised in that said media comprises a textile being a warp-knitted type textile made of at least three twines superposed and reciprocally woven together, each one having a base, which is a portion of minimal dimension which is periodically repeated along substantially the entire textile, which repeats periodically substantially along the entire textile, and wherein each of said twines has a base of different dimensions compared to the other said twines along the extension plane of said textile.
A negative electrode for a non-aqueous electrolyte secondary battery, comprising a negative electrode active material layer containing a negative electrode material and a binder formed on a surface of a current collector, the negative electrode material having a core portion including carbonaceous negative electrode active material particles; and a shell portion including a polyimide and silicon-based negative electrode active material particles and/or tin-based negative electrode active material particles, wherein a content of the silicon-based negative electrode active material particles and/or tin-based negative electrode active material particles with respect to 100% by mass of a content of the carbonaceous negative electrode active material particles is 2% to 20% by mass, and the binder is formed of a hydrophilic unit and a hydrophobic unit bonded together in a block polymer structure.
A joined body in which a silicon nitride substrate and a copper plate are joined together with a brazing layer formed of an Ag-Cu-Sn-based brazing material containing silver, copper, tin, and an active metal contained as TiH 2, wherein the content of silver in the brazing layer is 85% by mass or more, wherein the amount of tin in the brazing layer is 0.5 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein the content of TiH 2 in the brazing layer is 1 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein a mean value of a KAM value of a silver portion in the brazing layer obtained by EBSP method, as described in the description, using an orientation imaging microscopy is 0.55° or less, and wherein the KAM value is a kernel average misorientation value indicating an orientation difference between adjacent measurement points in a crystal grain, and EBSP is an electron back scattering pattern method. wherein the content of silver in the brazing layer is 85% by mass or more, wherein the amount of tin in the brazing layer is 0.5 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein the content of TiH 2 in the brazing layer is 1 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein a mean value of a KAM value of a silver portion in the brazing layer obtained by EBSP method, as described in the description, using an orientation imaging microscopy is 0.55° or less, and wherein the KAM value is a kernel average misorientation value indicating an orientation difference between adjacent measurement points in a crystal grain, and EBSP is an electron back scattering pattern method.