mhurhangee/ep-ind-claims huggingface dataset:
A flexible substrate, comprising: a base substrate; wherein the base substrate comprises: a plurality of sub-pixel areas arranged in an array; connection areas between the sub-pixel areas, wherein each of the connection areas connects adjacent sub-pixel areas; and hollow areas among the sub-pixel areas and the connection area; wherein in each sub-pixel area, a pixel circuit, an isolation structure, and a light-emitting functional layer covering the pixel circuit and the isolation structure are provided; wherein the isolation structure has a hollow pattern at a junction of a sub-pixel area and a connection area; each of the connection areas is provided with a signal line therein, wherein the signal line is electrically connected with the pixel circuit through the hollow pattern; and characterised in that the isolation structure surrounds the pixel circuit, and has an undercut that interrupts the light-emitting functional layer. wherein the base substrate comprises: a plurality of sub-pixel areas arranged in an array; connection areas between the sub-pixel areas, wherein each of the connection areas connects adjacent sub-pixel areas; and hollow areas among the sub-pixel areas and the connection area; a plurality of sub-pixel areas arranged in an array; connection areas between the sub-pixel areas, wherein each of the connection areas connects adjacent sub-pixel areas; and hollow areas among the sub-pixel areas and the connection area; wherein in each sub-pixel area, a pixel circuit, an isolation structure, and a light-emitting functional layer covering the pixel circuit and the isolation structure are provided; wherein the isolation structure has a hollow pattern at a junction of a sub-pixel area and a connection area; each of the connection areas is provided with a signal line therein, wherein the signal line is electrically connected with the pixel circuit through the hollow pattern; and characterised in that the isolation structure surrounds the pixel circuit, and has an undercut that interrupts the light-emitting functional layer.
A hang-off system for measuring a top tension in a flexible pipe, said flexible pipe comprising a flexible pipe body and a top end-fitting arranged at an end of the flexible pipe body, the hang-off system being intended to maintain the top end-fitting on a surface assembly, the hang-off system comprising: - an annular collar extending along a first axis, the annular collar being intended to be arranged around the top end-fitting, the annular collar being formed by at least two parts assembled to each other, each part comprising a top plate and a bottom plate assembled to each other, said top plate and bottom plate delimiting an intermediate space between them, at least one part comprising at least one load cell arranged in the intermediate space and sandwiched between the top plate and the bottom plate, the bottom plate being intended to be assembled on the surface assembly, - a data acquisition system connected to the load cell. - an annular collar extending along a first axis, the annular collar being intended to be arranged around the top end-fitting, the annular collar being formed by at least two parts assembled to each other, each part comprising a top plate and a bottom plate assembled to each other, said top plate and bottom plate delimiting an intermediate space between them, at least one part comprising at least one load cell arranged in the intermediate space and sandwiched between the top plate and the bottom plate, the bottom plate being intended to be assembled on the surface assembly, - a data acquisition system connected to the load cell.
A dental implant assembly comprising a main body which is at least partly incorporated into the jawbone, comprising a recess which extends from the coronal end of the main body in the direction of the apical end and a coupling region at the coronal end, which encloses the recess and is concavely or convexly curved, an abutment, wherein the abutment has an apical coupling region which is oriented towards the main body and has a convex or concave geometry opposite to the coupling region of the main body, wherein the coupling region of the main body forms an interface with the coupling region of the abutment, and a connecting element for fastening the abutment on the main body, characterized in that the curvature of the concave coupling region is smaller than the curvature of the convex coupling region. a main body which is at least partly incorporated into the jawbone, comprising a recess which extends from the coronal end of the main body in the direction of the apical end and a coupling region at the coronal end, which encloses the recess and is concavely or convexly curved, an abutment, wherein the abutment has an apical coupling region which is oriented towards the main body and has a convex or concave geometry opposite to the coupling region of the main body, wherein the coupling region of the main body forms an interface with the coupling region of the abutment, and a connecting element for fastening the abutment on the main body, characterized in that the curvature of the concave coupling region is smaller than the curvature of the convex coupling region.
A positive-electrode active material comprising a lithium composite oxide, wherein the lithium composite oxide has a crystal structure belonging to a space group Fd-3m, an integrated intensity ratio I /I of a peak on a plane to a peak on a plane in an XRD pattern of the lithium composite oxide satisfies 0.05 ≤ I /I ≤ 0.90, wherein the lithium composite oxide is represented by a composition formula Li x Me y O α Q β, wherein Me either denotes Mn, or wherein Me denotes Mn and further at least one selected from the group consisting of Co, Ni, Fe, Cu, V, Nb, Mo, Ti, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, Ag, Ru, W, B, Si, P, and Al, Q denotes F, 1.05 ≤ x ≤ 1.4, 0.6 ≤ y ≤ 0.95, 1.33 ≤ α ≤ 2, and 0 < β ≤ 0.67, and wherein Mn constitutes 50% or more by mole of Me. a lithium composite oxide, wherein the lithium composite oxide has a crystal structure belonging to a space group Fd-3m, an integrated intensity ratio I /I of a peak on a plane to a peak on a plane in an XRD pattern of the lithium composite oxide satisfies 0.05 ≤ I /I ≤ 0.90, wherein the lithium composite oxide is represented by a composition formula Li x Me y O α Q β, wherein Me either denotes Mn, or wherein Me denotes Mn and further at least one selected from the group consisting of Co, Ni, Fe, Cu, V, Nb, Mo, Ti, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, Ag, Ru, W, B, Si, P, and Al, Q denotes F, 1.05 ≤ x ≤ 1.4, 0.6 ≤ y ≤ 0.95, 1.33 ≤ α ≤ 2, and 0 < β ≤ 0.67, and wherein Mn constitutes 50% or more by mole of Me.
A ventilated façade cladding system comprising: - a building structure, - a façade cladding, and - a sub-structure of one or more battens are attached to the building structure to support the façade cladding and to create a cavity between the building structure and the façade cladding, the one or more battens is attached at one longitudinal side to a surface of the building structure, and opposite longitudinal side to the façade cladding, the one or more battens comprises a ventilating and fire-resistant batten (4,7) comprising: - one or more through openings, and - one or more ventilating cavity fire barriers arranged in or adjacent to the one or more through openings, wherein the ventilating and fire-resistant batten allows air to pass through the one or more through openings into and/or out of the cavity and is adapted to block for air and/or for fire penetration through the one or more openings when exposed to fire, the ventilating and firesafe batten provide support of façade cladding, ventilation, drainage, and fire resistance in one unit, characterized in that the one or more ventilating cavity fire barriers is a removeable device adapted to be inserted into, or extracted from, the one of more through opening. - a building structure, - a façade cladding, and - a sub-structure of one or more battens are attached to the building structure to support the façade cladding and to create a cavity between the building structure and the façade cladding, the one or more battens is attached at one longitudinal side to a surface of the building structure, and opposite longitudinal side to the façade cladding, the one or more battens comprises a ventilating and fire-resistant batten (4,7) comprising: - one or more through openings, and - one or more ventilating cavity fire barriers arranged in or adjacent to the one or more through openings, - one or more through openings, and - one or more ventilating cavity fire barriers arranged in or adjacent to the one or more through openings, wherein the ventilating and fire-resistant batten allows air to pass through the one or more through openings into and/or out of the cavity and is adapted to block for air and/or for fire penetration through the one or more openings when exposed to fire, the ventilating and firesafe batten provide support of façade cladding, ventilation, drainage, and fire resistance in one unit, characterized in that the one or more ventilating cavity fire barriers is a removeable device adapted to be inserted into, or extracted from, the one of more through opening.
A tow bar for towing aircraft at their nose gear, the tow bar comprising - a base element; - a tow head attached at the base element through at least one shear pin, - wherein the shear pin has at least one rated fracture joint, and - a form locking positioning device for positioning the shear pin in a shear pin direction in the tow head, characterized in that - the at least one shear pin includes plural rated fracture joints with different shear ratings that are offset in a pin direction, - an interlocking device is arranged as a positioning device at a head or at an end of the shear pin between the shear pin and the tow head wherein the interlocking device includes plural interlocking positions that are offset in the pin direction. - a base element; - a tow head attached at the base element through at least one shear pin, - wherein the shear pin has at least one rated fracture joint, and - a form locking positioning device for positioning the shear pin in a shear pin direction in the tow head, characterized in that - the at least one shear pin includes plural rated fracture joints with different shear ratings that are offset in a pin direction, - an interlocking device is arranged as a positioning device at a head or at an end of the shear pin between the shear pin and the tow head wherein the interlocking device includes plural interlocking positions that are offset in the pin direction.
A radio frequency identification reader for use in an RFID detection system, the reader comprising: a RF source for generating RF signals; an antenna coupled to the RF source, the antenna transmitting interrogation RF signals to one or more RFID markers within an interrogation zone and receiving communication signals from one or more items within the interrogation zone, wherein the communication signals include Doppler signals indicating movement of an item within the interrogation zone; a receiver for receiving the communication signals; and motion detection circuitry for detecting the Doppler signals from incoming baseband signals and for separating the Doppler signals for processing; wherein the antenna transmits at a first power level to detect movement within the interrogation zone and transmits at a second power level greater than the first power level to detect the presence of an RFID marker within the interrogation zone if movement is detected, wherein at the first power level, the reader has enough power to detect incoming Doppler signals, but not to energize RFID markers for interrogation, wherein the motion detection circuitry is adapted to forward the Doppler signals to a signal processor (28, 29); and wherein the reader acts as a motion sensor and is able to determine that products within the interrogation zone have been moved from an initial location to another location. a RF source for generating RF signals; an antenna coupled to the RF source, the antenna transmitting interrogation RF signals to one or more RFID markers within an interrogation zone and receiving communication signals from one or more items within the interrogation zone, wherein the communication signals include Doppler signals indicating movement of an item within the interrogation zone; a receiver for receiving the communication signals; and motion detection circuitry for detecting the Doppler signals from incoming baseband signals and for separating the Doppler signals for processing; wherein the antenna transmits at a first power level to detect movement within the interrogation zone and transmits at a second power level greater than the first power level to detect the presence of an RFID marker within the interrogation zone if movement is detected, wherein at the first power level, the reader has enough power to detect incoming Doppler signals, but not to energize RFID markers for interrogation, wherein the motion detection circuitry is adapted to forward the Doppler signals to a signal processor (28, 29); and wherein the reader acts as a motion sensor and is able to determine that products within the interrogation zone have been moved from an initial location to another location.
A battery forklift comprising: a battery; a motor that includes a rotation shaft and is driven using the battery as a power source; a reduction device that reduces the speed of rotation of the rotation shaft and transmits the rotation to an axle; a case that accommodates the reduction device; and a drive wheel that is driven by rotation of the axle, wherein the reduction device includes a helical gear rotated integrally with the rotation shaft, a drive shaft formed integrally with the helical gear and extended in a vertical direction, an upper bearing located above the helical gear to support the drive shaft rotatably relative to the case, and a lower bearing located below the helical gear to support the drive shaft rotatably relative to the case, characterized in that the case includes a communication portion that communicates a lower void located below the upper bearing and an upper void located above the upper bearing. a battery; a motor that includes a rotation shaft and is driven using the battery as a power source; a reduction device that reduces the speed of rotation of the rotation shaft and transmits the rotation to an axle; a case that accommodates the reduction device; and a drive wheel that is driven by rotation of the axle, wherein the reduction device includes a helical gear rotated integrally with the rotation shaft, a drive shaft formed integrally with the helical gear and extended in a vertical direction, an upper bearing located above the helical gear to support the drive shaft rotatably relative to the case, and a lower bearing located below the helical gear to support the drive shaft rotatably relative to the case, characterized in that the case includes a communication portion that communicates a lower void located below the upper bearing and an upper void located above the upper bearing.
A system for producing methane from carbon dioxide, comprising a supply of carbon dioxide, a source of reducing power, and Methanothermobacter microorganisms cultured at a temperature of 50 degrees C or higher and a pH of 8 to 10 in a culture medium which supports a stationary phase of growth of said microorganisms, wherein said microorganisms are (a) Methanothermobacter thermautotrophicus strain UC 120910, deposited on December 21, 2010, with the American Type Culture Collection (ATCC®) under ATCC® Patent Deposit Designation No. PTA-11561, or (b) a variant derived from (a) that retains the CO 2 conversion phenotypic characteristics of (a), and wherein said microorganisms exhibit a methane production efficiency that is at least 25 CO 2 molecules converted to methane per CO 2 molecule converted to cellular material, produces at least 96 molecules of methane per 100 molecules of carbon dioxide supplied to the microorganisms, and/or produces at least 17 grams of methane from carbon dioxide per 1 gram of cellular material produced from carbon dioxide.
Device for suctioning of particulate and/or gaseous emissions named surgical smoke between an emission source in the front area of a surgeon and its mouth-nose-area, comprising: - an suctioning hose for providing a negative pressure from a negative pressure source, and - a suctioning element with - a chamber formed by at least one hose like body and having a hose cross section area, - suction openings opening the chamber, wherein the suctioning hose is connectable to the suctioning openings for generating the negative pressure in the chamber, and - a plurality of aspiration openings that opens the chamber and passes through the boundary of the hose like body for aspirating the surgical smoke based on the negative pressure in the chamber, characterized in that each aspiration opening has an opening sectional area, and wherein the sum of all opening sectional area is smaller than 2,5 times of the hose cross section area. - an suctioning hose for providing a negative pressure from a negative pressure source, and - a suctioning element with - a chamber formed by at least one hose like body and having a hose cross section area, - suction openings opening the chamber, wherein the suctioning hose is connectable to the suctioning openings for generating the negative pressure in the chamber, and - a plurality of aspiration openings that opens the chamber and passes through the boundary of the hose like body for aspirating the surgical smoke based on the negative pressure in the chamber,
A method of producing inorganic semiconducting nanoparticles having a stable surface, the method comprising: providing an inorganic bulk semiconductor material; and milling the bulk semiconductor material at a temperature of between 100 °C and 200 °C in the presence of a selected reducing agent, the reducing agent acting to chemically reduce oxides of one or more component elements of the semiconductor material formed during the milling, or prevent the formation of such oxides by being preferentially oxidised, thereby to produce semiconducting nanoparticles of the inorganic bulk semiconductor material, said nanoparticles having a stable surface which allows electrical contact between the nanoparticles wherein the milling media and/or one or more components of the mill comprise the selected reducing agent, said selected reducing agent being a metal selected from the group comprising iron, chromium, cobalt, nickel, tin, titanium, tungsten, vanadium, and aluminium, or an alloy containing one or more of said metals. providing an inorganic bulk semiconductor material; and milling the bulk semiconductor material at a temperature of between 100 °C and 200 °C in the presence of a selected reducing agent, the reducing agent acting to chemically reduce oxides of one or more component elements of the semiconductor material formed during the milling, or prevent the formation of such oxides by being preferentially oxidised,
Furniture, comprising a furniture body, a front panel and at least one upper and at least one lower lever linkage (10, 20), wherein the front panel is mounted pivotably relative to the furniture body via the at least one upper and the at least one lower lever linkage (10, 20), wherein the furniture body comprises two side walls and a lower base connecting the side walls and an upper base connecting the side walls, wherein the lower and upper lever linkage (10, 20) each have a cassette (11, 21) with at least two levers (13, 14, 23, 24) rotatably mounted on the cassette (11, 21) and at least one adapter (12, 22) for fixing the front panel, on which the at least two levers (13, 14, 23, 24) are rotatably mounted, wherein a recess or receptacle is formed on the upper and/or lower base (4, 5), into which or on which a cassette (11, 21) is inserted, wherein the front panel can be pivoted from a closed position covering an opening of the furniture body into an open position exposing the opening, wherein the front panel in the open position is arranged laterally next to the opening and is pivoted by an angle <30° so that the inner side of the front panel facing the interior in the closed position now faces an outer side of an adjacent front panel or an adjacent panel of a piece of furniture and the distance between the front panel and an adjacent front panel, which is located in the closing plane of the furniture, is between 5 cm and 50 cm, and at least one damper (40, 50) is provided, by means of which a closing movement of the front panel and/or the opening movement can be braked before the end position is reached, and at least one securing element is provided on the adapter or one of the levers (13, 14) in order to secure the lever linkage (10, 20) against movement in a transport position or assembly position.
A method for controlling a heating, ventilation, and air conditioning (HVAC) system, comprising the steps: determining a travel time (λ) from each of a plurality of mobile sites to a fixed site; determining a conditioning time (Θ) for a HVAC system at the fixed site; and turning the HVAC system ON when any of the travel times (λ) is less than the conditioning time (Θ); turning the HVAC system OFF when all of the travel times (λ) are greater than the conditioning time (Θ) plus a threshold time (ε), wherein the conditioning time is determined using a building thermal model, and wherein the steps are performed in a processor; wherein each mobile site communicates a separate travel time (λ 1, λ 2, λ 3,..., λ N) to the fixed site; wherein the fixed site calculates a separate conditioning time (Θ 1, Θ 2, Θ 3... Θ N) for each occupant sharing a same environment, and the HVAC system uses separate threshold times (ε 1, ε 2, ε 3... ε N) for each occupant sharing the same environment; and wherein each mobile site includes a mobile transceiver and a mobile locator, and wherein the fixed site includes a fixed transceiver for communicating with each mobile site via a network, and wherein the processor includes a fixed processor at the fixed site and a mobile processor at each mobile site. determining a travel time (λ) from each of a plurality of mobile sites to a fixed site; determining a conditioning time (Θ) for a HVAC system at the fixed site; and turning the HVAC system ON when any of the travel times (λ) is less than the conditioning time (Θ); turning the HVAC system OFF when all of the travel times (λ) are greater than the conditioning time (Θ) plus a threshold time (ε), wherein the conditioning time is determined using a building thermal model, and wherein the steps are performed in a processor; wherein each mobile site communicates a separate travel time (λ 1, λ 2, λ 3,..., λ N) to the fixed site; wherein the fixed site calculates a separate conditioning time (Θ 1, Θ 2, Θ 3... Θ N) for each occupant sharing a same environment, and the HVAC system uses separate threshold times (ε 1, ε 2, ε 3... ε N) for each occupant sharing the same environment; and wherein each mobile site includes a mobile transceiver and a mobile locator, and wherein the fixed site includes a fixed transceiver for communicating with each mobile site via a network, and wherein the processor includes a fixed processor at the fixed site and a mobile processor at each mobile site.