mhurhangee/ep-ind-claims huggingface dataset:
Window or door with a hinge which forms turn axes, tilt axes, and/or tilt-turn axes between casement and frame, consisting of at least one operating rod guided on overlapping rails, latching elements, locking parts, and/or at least one arrangement consisting of an opening stay for switching the hinge to differently operating axes, wherein at least one safety element is provided on the turning axis side between casement and frame and secured on this frame and casement in a manner resistant to being pulled out, wherein the safety element has no function in the normal operation of the hinge, is effective outside of the permissible target positions of the casement relative to the frame, and wherein a configuration resistant to being pulled out of a cord is provided for the safety element, wherein the safety element comprises an element which is assigned to at least one casement side and one frame side abutment (3, 4), characterized in that at least one abutment (3, 4) comprises a series of abutment steps with predetermined breaking points, lying in the direction of the effectively stressed element, on which the element is supported, wherein the element consists of a thickening area (13, 14) arranged at the ends (11, 12) of the cord, the dimensions of which are matched to the clear dimension of a cylindrical recess arranged at the abutment (3, 4), such that the thickening area (13, 14) can be moved in this almost free of any play, wherein, with the imposition of load on the element and with adequate kinematic energy, the abutment steps are plastically deformable, and therefore incur a stepped reduction of the kinetic energy, that the cylindrical recess is arranged at the abutment (3, 4) on the side facing away from the casement or frame, which the cord passes through, wherein the abutment steps are located in the recess, and that the cylindrical recess extends in the longitudinal direction of the abutment (3, 4) with open ends (18, 19) in each case, wherein the end remote from the abutment steps corresponds to the inner diameter of the cylindrical recess, and the end adjoining the abutment steps exhibits a diameter-reducing opening adjusted to enclose snugly around the cord.
A device (2, 2', 2") for handling at least one hose (3; 3'; 3") on a fuel dispensing unit, said device (2; 2'; 2") comprising a frame element (7, 7', 7") being hollow and having a first outer end and a second outer end, said second outer end being opposite to said first outer end, a first guiding element (10; 11; 14; 15; 10'; 11'; 14'; 15'; 10"; 11"; 20"; 21"; 22"; 24"; 25"; 29"; 30"; 31") arranged in said frame element (7; 7'; 7"), an elastic element (9; 13; 9'; 13'; 9"; 13"; 23"; 28") extending horizontally in said frame element (7; 7'; 7") from a first fastening point to a second fastening point, said elastic element (9; 13; 9'; 13'; 9"; 13"; 23"; 28") being guided by said first guiding element (10; 11; 14; 15; 10'; 11'; 14'; 15'; 10"; 11"; 20"; 21"; 22"; 24"; 25"; 29"; 30"; 31"), and a first hose guiding means (12; 16; 12'; 16'; 17'; 19'; 12"; 16"; 17"; 19"; 26"; 27"; 32"; 33") being arranged adjacent to first outer end of said frame element (7; 7'; 7") and adapted to guide said at least one hose (3; 3'; 3"), wherein said first fastening point is positioned on said first hose guiding means (12; 16; 12'; 16'; 17'; 19'; 12"; 16"; 17"; 19"; 26"; 27"; 32"; 33") such that said first hose guiding means (12; 16; 12'; 16'; 17'; 19'; 12"; 16"; 17"; 19"; 26"; 27"; 32"; 33") is movable away from said frame element (7; 7'; 7") allowing said at least one hose (3; 3'; 3") to be pulled from an idle position to an operating position, characterized in that the device further comprises second hose guiding means and said second fastening point is positioned on said second hose guiding means (12; 16; 12'; 16'; 17'; 19'; 12"; 16"; 17"; 19"; 26"; 27"; 32"; 33") for guiding a second hose (3; 3'; 3"), such that said second hose guiding means (12; 16; 12'; 16'; 17'; 19'; 12"; 16"; 17"; 19"; 26"; 27"; 32"; 33") is movable away from said frame element (7; 7'; 7") allowing said second hose (3; 3'; 3") to be pulled from an idle position to an operating position.
An electrochemical system, comprising a planar array of interconnected electrochemical cells, wherein each interconnected electrochemical cell comprises at least three first electrodes and at least three second electrodes, each first electrode comprising at least three first microelectrodes, and each second electrode comprising at least three second microelectrodes, wherein each first microelectrode is interdigitated with one second microelectrode to form one electrochemical cell; wherein at least one of the first electrodes and the second electrodes comprise an interconnected corrugated carbon-based network, ICCN, comprising a plurality of expanded and interconnected carbon layers, and wherein the at least one of the first electrodes and the second electrodes further comprise a pseudocapacitive material.
A MEMS microphone device comprising a MEMS microphone having a microphone body with an opening and further comprising a printed circuit board on which the microphone body is mounted by soldering, characterized in that said microphone body comprises, at said opening, a built-in textile material protecting screen, and in that said protecting screen is made of a woven single-thread or multi-thread polymeric material yarn and having a density larger than or equal to 100 threads/cm and a thread diameter up to 60 microns.
A process for producing a ceramic-made honeycomb structure, which comprises a bonding step of bonding, with a bonding material, a plurality of honeycomb segments each comprising a cell structure having a plurality of cells divided by porous partition walls and functioning as a fluid passage, and a porous outer wall provided at the periphery of the cell structure, to each other at the outer walls of honeycomb segments to obtain an integral body, in which bonding step, a bonding material containing 0.1 mass % or more of a heat-gelling organic binder having a thickening-initiating temperature of 75°C or lower is coated on each outer wall, the coated bonding material is dried at a temperature of 100°C or higher at which no firing occurs, a liquid component of the bonding material is vaporized, and the bonding material solidified to form a bonding layer, and the outer walls are bonded to each other via the bonding layer; wherein the organic binder is methyl cellulose.
A shipping container for transporting works of art comprising: an enclosing section comprising a flat rectangular wall segment and four wall sections adjoining said flat wall segment, wherein the enclosing section is a single structural element obtained by injection moulding and wherein the flat wall segment and the four wall sections define a space for the works of art to be transported, a cover section comprising a flat rectangular wall section and wherein the cover section is a single structural element obtained by injection moulding, retaining means to secure the cover section to the wall sections of the enclosing section, characterized in that the retaining means are not present on at least one wall section and wherein said one wall section which is not provided with retaining means is provided with one or more support strips along the length of the side wall, wherein at the interior of the flat rectangular wall segment and the four wall sections of the enclosing section and at the interior of the cover section a vacuum insulated panel is positioned, and wherein the vacuum insulated panel comprises an air tight envelope and one or more layers of a silica aerogel as the core material positioned within the air tight envelope. an enclosing section comprising a flat rectangular wall segment and four wall sections adjoining said flat wall segment, wherein the enclosing section is a single structural element obtained by injection moulding and wherein the flat wall segment and the four wall sections define a space for the works of art to be transported, a cover section comprising a flat rectangular wall section and wherein the cover section is a single structural element obtained by injection moulding, retaining means to secure the cover section to the wall sections of the enclosing section, characterized in that the retaining means are not present on at least one wall section and wherein said one wall section which is not provided with retaining means is provided with one or more support strips along the length of the side wall, wherein at the interior of the flat rectangular wall segment and the four wall sections of the enclosing section and at the interior of the cover section a vacuum insulated panel is positioned, and wherein the vacuum insulated panel comprises an air tight envelope and one or more layers of a silica aerogel as the core material positioned within the air tight envelope.
A method of diagnosing an abnormality of a monitoring target comprising: generating a simulation model of the monitoring target; measuring an internal state quantity of the monitoring target in an operating state as a measured value; calculating a predicted value of the internal state quantity of the monitoring target by inputting a control value, which is the same as that input to the monitoring target in the operating state, into the simulation model; characterized by calculating a Mahalanobis distance based on an error vector that includes, as components thereof, a difference between the measured value and the predicted value and an integral value of the difference in a predetermined period in the operating state of the monitoring target; and diagnosing whether the operating state of the monitoring target is abnormal based on the Mahalanobis distance. generating a simulation model of the monitoring target; measuring an internal state quantity of the monitoring target in an operating state as a measured value; calculating a predicted value of the internal state quantity of the monitoring target by inputting a control value, which is the same as that input to the monitoring target in the operating state, into the simulation model; characterized by calculating a Mahalanobis distance based on an error vector that includes, as components thereof, a difference between the measured value and the predicted value and an integral value of the difference in a predetermined period in the operating state of the monitoring target; and diagnosing whether the operating state of the monitoring target is abnormal based on the Mahalanobis distance.
A light route control member comprising: a first substrate; a first electrode disposed on the first substrate; a second substrate disposed on the first substrate; a second electrode disposed under the second substrate; a light conversion part disposed between the first electrode and the second electrode, and an adhesive layer disposed between the second electrode and the light conversion part, wherein the light conversion part includes a partition wall part and a receiving part that are alternately arranged, wherein the receiving part includes a dispersion and a plurality of light absorbing particles disposed in the dispersion, wherein a shortest width of the receiving part is a first width, wherein a longest width of the receiving part is a second width, wherein a longest width of the partition wall part is a third width, wherein a height of the partition wall part is a first height, characterized in that a third width / first width is 1.5 or more, and a first height / first width is 4 or more, and in that a Log volume resistivity of the adhesive layer is 9 Ω·cm to 15 Ω·cm. a first substrate; a first electrode disposed on the first substrate; a second substrate disposed on the first substrate; a second electrode disposed under the second substrate; a light conversion part disposed between the first electrode and the second electrode, and an adhesive layer disposed between the second electrode and the light conversion part, wherein the light conversion part includes a partition wall part and a receiving part that are alternately arranged, wherein the receiving part includes a dispersion and a plurality of light absorbing particles disposed in the dispersion, wherein a shortest width of the receiving part is a first width, wherein a longest width of the receiving part is a second width, wherein a longest width of the partition wall part is a third width, wherein a height of the partition wall part is a first height, characterized in that a third width / first width is 1.5 or more, and a first height / first width is 4 or more, and in that a Log volume resistivity of the adhesive layer is 9 Ω·cm to 15 Ω·cm.
Device for supporting a load of a gangway structure between a first car and a second car, the device having - a first beam that extends along a first longitudinal axis and has a connecting structure suitable to be connected to the first car and - a second beam that extends along a second longitudinal axis and has a connecting structure suitable to be connected to the second car, wherein the first longitudinal axis is parallel to the second longitudinal axis, the device comprising a connector, wherein - the connector has a first support surface (23,27) that extends in a direction parallel to the first longitudinal axis, whereby an element of the first beam is supported by the first support surface (23,27) and can move along the first support surface (23,27), and - the connector has a second support surface (24,28) that extends in a direction parallel to the second longitudinal axis, whereby an element of the second beam is supported by the second support surface (24,28) and can move along the second support surface (24,28), characterized in that the first beam has a first load supporting surface and the second beam has a second load supporting surface on which the gangway structure can directly rest, whereby the first load supporting surface and the second load supporting surface are arranged in one horizontal plane, wherein the connector is adapted to hold the first and second beam (2, 3) next to each other. - a first beam that extends along a first longitudinal axis and has a connecting structure suitable to be connected to the first car and - a second beam that extends along a second longitudinal axis and has a connecting structure suitable to be connected to the second car, - the connector has a first support surface (23,27) that extends in a direction parallel to the first longitudinal axis, whereby an element of the first beam is supported by the first support surface (23,27) and can move along the first support surface (23,27), and - the connector has a second support surface (24,28) that extends in a direction parallel to the second longitudinal axis, whereby an element of the second beam is supported by the second support surface (24,28) and can move along the second support surface (24,28),
Method of manufacturing structures on substrates using wet deposition wherein a first dielectric layer is deposited on a substrate by wet deposition, a first electrically conductive layer is deposited on the first dielectric layer, a second dielectric layer is deposited on it by wet deposition, and a second electrically conductive layer is deposited on it, characterized in that an dielectric interlayer is deposited between the first dielectric layer and the second electrically conductive layer by a dry deposition process.
An apparatus for thermal melting process for conducting a thermal melting process on process objects including solder in an atmosphere containing carbonic acid vapor, wherein the apparatus for thermal melting process comprises: a first chamber for conducting the thermal melting process on the process objects including solder; a second chamber connected with the first chamber via a valve capable of opening and closing; a carbonic acid supply means for supplying the carbonic acid into the first chamber; a heating means provided in the first chamber for heating the process object; the apparatus being characterized by: a transfer means having a hand part for carrying the process objects in transferring the process objects between the first chamber and the second chamber, wherein the hand part is also used as a cooling plate; and a forced cooling means for forcedly cooling the hand part, wherein the hand part is cooled in the first chamber by the forced cooling means and carries the process object to transfer it from the first chamber to the second chamber while the forced cooling means continues to forcedly cool the hand part. a first chamber for conducting the thermal melting process on the process objects including solder; a second chamber connected with the first chamber via a valve capable of opening and closing; a carbonic acid supply means for supplying the carbonic acid into the first chamber; a heating means provided in the first chamber for heating the process object; the apparatus being characterized by: a transfer means having a hand part for carrying the process objects in transferring the process objects between the first chamber and the second chamber, wherein the hand part is also used as a cooling plate; and a forced cooling means for forcedly cooling the hand part, wherein the hand part is cooled in the first chamber by the forced cooling means and carries the process object to transfer it from the first chamber to the second chamber while the forced cooling means continues to forcedly cool the hand part. a transfer means having a hand part for carrying the process objects in transferring the process objects between the first chamber and the second chamber, wherein the hand part is also used as a cooling plate; and a forced cooling means for forcedly cooling the hand part, wherein the hand part is cooled in the first chamber by the forced cooling means and carries the process object to transfer it from the first chamber to the second chamber while the forced cooling means continues to forcedly cool the hand part.
Stator assembly for a gas turbine comprising: • a stator ring, which extends about a longitudinal axis and comprises an inner edge and an outer edge; the outer edge being provided with an annular groove; the annular groove defining a leading wall and a trailing wall; the trailing wall being provided with an annular trailing radial face and with an annular trailing axial face; • a plurality of stator vanes radially arranged and coupled alongside one another to the outer edge of the stator ring so as to close the annular groove and define an annular cooling channel; the stator ring being provided with at least one trailing cooling hole having an inlet facing the annular cooling channel and an outlet arranged on the annular trailing radial face; wherein each stator vane comprises an airfoil, an outer shroud and an inner shroud coupled to the stator ring; the inner shroud comprising a platform;wherein the inner shroud comprises a leading flange and a trailing flange, both extending radially inward from the platform; the leading flange being coupled to the leading wall and the trailing flange being coupled to the trailing wall; the trailing flange being coupled to the trailing wall so as to leave a trailing radial gap between the trailing wall and the platform and to define a trailing surface of the trailing flange facing said trailing radial gap; the stator assembly being characterized by the fact that the trailing flange is provided on the trailing surface with at least one secondary cooling hole in fluid communication with the annular cooling channel. • a stator ring, which extends about a longitudinal axis and comprises an inner edge and an outer edge; the outer edge being provided with an annular groove; the annular groove defining a leading wall and a trailing wall; the trailing wall being provided with an annular trailing radial face and with an annular trailing axial face; • a plurality of stator vanes radially arranged and coupled alongside one another to the outer edge of the stator ring so as to close the annular groove and define an annular cooling channel; the stator ring being provided with at least one trailing cooling hole having an inlet facing the annular cooling channel and an outlet arranged on the annular trailing radial face; wherein each stator vane comprises an airfoil, an outer shroud and an inner shroud coupled to the stator ring; the inner shroud comprising a platform;wherein the inner shroud comprises a leading flange and a trailing flange, both extending radially inward from the platform; the leading flange being coupled to the leading wall and the trailing flange being coupled to the trailing wall; the trailing flange being coupled to the trailing wall so as to leave a trailing radial gap between the trailing wall and the platform and to define a trailing surface of the trailing flange facing said trailing radial gap; the stator assembly being characterized by the fact that the trailing flange is provided on the trailing surface with at least one secondary cooling hole in fluid communication with the annular cooling channel.
Silica powder, characterized in that it is in the form of aggregated primary particles having a mean diameter of at least 40 nm and has a ratio of the BET surface area to STSA surface area of at least 3.5.
A position indicator having a pen shape, and electrostatically interacting with a sensor of a position detection device, the position indicator comprising: a conductive core body; and a shielding member for electrostatically shielding the core body; wherein the position indicator is configured to receive a request signal transmitted from the position detection device, characterized in that the position indicator is configured to, in response to the received request signal, - perform a signal transmission through the core body in a first state in which the shielding member is grounded in terms of alternating current, and - perform a signal transmission through the core body in a second state in which the shielding member is in a floating state in terms of potential, and characterized in that, in response to the request signal, the control circuit is configured to perform, in a predetermined sequence, the signal transmission from the core body in the first state and the signal transmission from the core body in the second state. a conductive core body; and a shielding member for electrostatically shielding the core body; wherein the position indicator is configured to receive a request signal transmitted from the position detection device, characterized in that the position indicator is configured to, in response to the received request signal, - perform a signal transmission through the core body in a first state in which the shielding member is grounded in terms of alternating current, and - perform a signal transmission through the core body in a second state in which the shielding member is in a floating state in terms of potential, - perform a signal transmission through the core body in a first state in which the shielding member is grounded in terms of alternating current, and - perform a signal transmission through the core body in a second state in which the shielding member is in a floating state in terms of potential, and characterized in that, in response to the request signal, the control circuit is configured to perform, in a predetermined sequence, the signal transmission from the core body in the first state and the signal transmission from the core body in the second state.