mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor package, comprising: a first substrate; a semiconductor device supported on a first major surface of said substrate; and a set of micro-channels formed in said semiconductor device; a fluid manifold surrounding said set of micro-channels, said first substrate including a fluid inlet coupled to said fluid manifold at a first end of said set of micro-channels for delivering coolant fluid to said micro-channels, and a fluid outlet coupled to said fluid manifold at a second end of said set of micro-channels opposite said first end for exhausting said coolant fluid from said micro-channels, wherein said set of micro-channels are formed in a face of said semiconductor device that engages said first substrate, and said substrate includes a patterned metallization layer that is soldered to said semiconductor device to define a boundary of said fluid manifold. a first substrate; a semiconductor device supported on a first major surface of said substrate; and a set of micro-channels formed in said semiconductor device; a fluid manifold surrounding said set of micro-channels, said first substrate including a fluid inlet coupled to said fluid manifold at a first end of said set of micro-channels for delivering coolant fluid to said micro-channels, and a fluid outlet coupled to said fluid manifold at a second end of said set of micro-channels opposite said first end for exhausting said coolant fluid from said micro-channels, wherein said set of micro-channels are formed in a face of said semiconductor device that engages said first substrate, and said substrate includes a patterned metallization layer that is soldered to said semiconductor device to define a boundary of said fluid manifold.
A method of manufacturing an array substrate, the method comprising: depositing a plurality of silicon oxide layers (21,22) on an active metal oxide semiconductor layer of a transistor, including: depositing a first silicon oxide layer on the metal oxide semiconductor layer; and depositing a second silicon oxide layer above the first silicon oxide layer by using nitrogen monoxide and silane gases with a mass flow ratio of the nitrogen monoxide to silane gases being 75: 1 - 85: 1; depositing a silicon oxynitride layer on the plurality of silicon oxide layers (21,22) by using nitrogen monoxide and silane gases with a mass flow ratio of the nitrogen monoxide to silane gases ranging from 60: 1 to 100:1; and annealing the silicon oxynitride layer at an annealing temperature not higher than 250°C, wherein the silicon oxide layers (21, 22) and the silicon oxynitride layer constitute a passivation layer of the array substrate, the hydrogen content in a first silicon oxide layer of the plurality of silicon oxide layers (21, 22) which is adjacent to the metal oxide semiconductor layer is higher than that in other silicon oxide layers. depositing a plurality of silicon oxide layers (21,22) on an active metal oxide semiconductor layer of a transistor, including: depositing a first silicon oxide layer on the metal oxide semiconductor layer; and depositing a second silicon oxide layer above the first silicon oxide layer by using nitrogen monoxide and silane gases with a mass flow ratio of the nitrogen monoxide to silane gases being 75: 1 - 85: 1; depositing a first silicon oxide layer on the metal oxide semiconductor layer; and depositing a second silicon oxide layer above the first silicon oxide layer by using nitrogen monoxide and silane gases with a mass flow ratio of the nitrogen monoxide to silane gases being 75: 1 - 85: 1; depositing a silicon oxynitride layer on the plurality of silicon oxide layers (21,22) by using nitrogen monoxide and silane gases with a mass flow ratio of the nitrogen monoxide to silane gases ranging from 60: 1 to 100:1; and annealing the silicon oxynitride layer at an annealing temperature not higher than 250°C, wherein the silicon oxide layers (21, 22) and the silicon oxynitride layer constitute a passivation layer of the array substrate, the hydrogen content in a first silicon oxide layer of the plurality of silicon oxide layers (21, 22) which is adjacent to the metal oxide semiconductor layer is higher than that in other silicon oxide layers.
A light emitting device comprising: a plurality of volume emitting LEDs adapted for, in operation, emitting light to the front and to the side of the LED, a substrate on which said plurality of volume emitting LEDs is arranged, and an optical structure comprising a surface adapted for forming a light exit surface of the light emitting device, a first section arranged such as to extend over said plurality of volume emitting LEDs opposite to the substrate, and a second section comprising a plurality of light redirecting elements adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection, wherein the plurality of light redirecting elements extend between adjacent volume emitting LEDs of the plurality of volume emitting LEDs and terminate adjacent to the substrate, and wherein the plurality of light redirecting elements comprise grooves being adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection. a plurality of volume emitting LEDs adapted for, in operation, emitting light to the front and to the side of the LED, a substrate on which said plurality of volume emitting LEDs is arranged, and an optical structure comprising a surface adapted for forming a light exit surface of the light emitting device, a first section arranged such as to extend over said plurality of volume emitting LEDs opposite to the substrate, and a second section comprising a plurality of light redirecting elements adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection, wherein the plurality of light redirecting elements extend between adjacent volume emitting LEDs of the plurality of volume emitting LEDs and terminate adjacent to the substrate, and wherein the plurality of light redirecting elements comprise grooves being adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection.
A foamable composition, comprising: a cellulose acetate having a degree of substitution of acetyl (DS Ac) between 2.2 to 2.6; 5 to 40 wt% of a plasticizer; 0.1 to 3 wt% of a nucleating agent; and 0.1 to 3 wt% a chemical blowing composition, that comprises: (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer, wherein the blowing agent comprises sodium bicarbonate, citric acid or combinations thereof, and wherein the carrier polymer consists of polybutylene succinate, a polycaprolactone, or combinations thereof, and wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition, wherein the proportions of the cellulose acetate, plasticizer, nucleating agent and chemical blowing composition are based on the total weight of the foamable composition. a cellulose acetate having a degree of substitution of acetyl (DS Ac) between 2.2 to 2.6; 5 to 40 wt% of a plasticizer; 0.1 to 3 wt% of a nucleating agent; and 0.1 to 3 wt% a chemical blowing composition, that comprises: (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer, wherein the blowing agent comprises sodium bicarbonate, citric acid or combinations thereof, and wherein the carrier polymer consists of polybutylene succinate, a polycaprolactone, or combinations thereof, and wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition, (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer, wherein the blowing agent comprises sodium bicarbonate, citric acid or combinations thereof, and wherein the carrier polymer consists of polybutylene succinate, a polycaprolactone, or combinations thereof, and wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition,
A code-excited linear prediction analysis-by-synthesis method of processing an audio signal, the method is characterised by comprising:: determining a parameter corresponding to the audio signal, wherein the parameter corresponds to a long-term signal-to-noise ratio; based on the determined parameter, determining a formant-sharpening factor γ 2; applying pitch-sharpening and formant-sharpening on the impulse response of a weighted synthesis filter before a fixed codebook search to determine an estimated codebook vector, wherein the formant-sharpening is applied using a formant-sharpening filter H 2 z = A z / γ 1 A z / γ 2 where 0 < γ 1 < γ 2 < 1; and filtering an estimated fixed codebook vector using the formant-sharpening filter to produce a modified fixed codebook vector, c'(n). determining a parameter corresponding to the audio signal, wherein the parameter corresponds to a long-term signal-to-noise ratio; based on the determined parameter, determining a formant-sharpening factor γ 2; applying pitch-sharpening and formant-sharpening on the impulse response of a weighted synthesis filter before a fixed codebook search to determine an estimated codebook vector, wherein the formant-sharpening is applied using a formant-sharpening filter H 2 z = A z / γ 1 A z / γ 2 where 0 < γ 1 < γ 2 < 1; and filtering an estimated fixed codebook vector using the formant-sharpening filter to produce a modified fixed codebook vector, c'(n).
A transfer device for transferring of a viscous functional material, such as a conductive paste, onto a receiving substrate, comprising: - a plate having a cavity surface that includes at least one cavity; - said cavity provided with a resistive heating device and control circuitry connected to said resistive heating device; said control circuitry arranged to, in use, heat the resistive heating device, so as to heat the functional material, provided in said at least one cavity, having a composition that, when heated, generates a gas at an interface between said cavity surface in the cavity and the functional material, to transfer said functional material from said at least one cavity by said gas generation onto a receiving substrate, wherein the resistive device is provided as a plate parallel resistive layer, characterized in that the cavity is formed in a thermal insulator layer of the plate, wherein the cavity is provided with a thermal conductor that is in thermal contact with the resistive device, and wherein said thermal conductor extends along, and is restricted to, the cavity surface. - a plate having a cavity surface that includes at least one cavity; - said cavity provided with a resistive heating device and control circuitry connected to said resistive heating device; said control circuitry arranged to, in use, heat the resistive heating device, so as to heat the functional material, provided in said at least one cavity, having a composition that, when heated, generates a gas at an interface between said cavity surface in the cavity and the functional material, to transfer said functional material from said at least one cavity by said gas generation onto a receiving substrate, wherein the resistive device is provided as a plate parallel resistive layer, characterized in that the cavity is formed in a thermal insulator layer of the plate, wherein the cavity is provided with a thermal conductor that is in thermal contact with the resistive device, and wherein said thermal conductor extends along, and is restricted to, the cavity surface.
A slot die coating apparatus for coating an electrode active material slurry onto an electrode collector, the slot die coating apparatus comprising: a coating roller; a lower die comprising a lower discharge opening, through which a second electrode active material slurry is discharged, and a lower slurry receiving part communicated with the lower discharge opening; and an upper die located on the upper side of the lower die and having an upper discharge opening, through which a first electrode active material slurry is discharged, wherein an upper air vent is installed in the upper die and a lower air vent is installed in the lower die, characterised in that the lower air vent is formed at the portion, at which the lower slurry receiving part and the lower discharge opening are connected to each other. a coating roller; a lower die comprising a lower discharge opening, through which a second electrode active material slurry is discharged, and a lower slurry receiving part communicated with the lower discharge opening; and an upper die located on the upper side of the lower die and having an upper discharge opening, through which a first electrode active material slurry is discharged, wherein an upper air vent is installed in the upper die and a lower air vent is installed in the lower die, characterised in that the lower air vent is formed at the portion, at which the lower slurry receiving part and the lower discharge opening are connected to each other.
A spinal fixation assembly comprising: a first pedicle screw having a first channel; a second pedicle screw having a second channel; and one or more loops, each loop having a loop thickness and defined by a spinal rod having a spinal rod thickness, the loop including a first elliptical-shaped member and an adjoining second elliptical-shaped member, characterized in that the members (102, 104) are directly attached to another and the loop is lemniscate-shaped, wherein the first and second channels are at least as wide as the spinal rod thickness and narrower than the loop thickness such that the first pedicle screw is configured to be attached to only one side of the first elliptical-shaped member and the second pedicle screw is configured to be attached to only one side of the second elliptical-shaped member. a first pedicle screw having a first channel; a second pedicle screw having a second channel; and one or more loops, each loop having a loop thickness and defined by a spinal rod having a spinal rod thickness, the loop including a first elliptical-shaped member and an adjoining second elliptical-shaped member, characterized in that the members (102, 104) are directly attached to another and the loop is lemniscate-shaped, wherein the first and second channels are at least as wide as the spinal rod thickness and narrower than the loop thickness such that the first pedicle screw is configured to be attached to only one side of the first elliptical-shaped member and the second pedicle screw is configured to be attached to only one side of the second elliptical-shaped member.
A pouch-type secondary battery, which includes an electrode assembly having a positive electrode plate and a negative electrode plate disposed to face each other and a pouch case having a concave groove formed to accommodate the electrode assembly, wherein the pouch case includes a first pouch film and a second pouch film thermally fused to the first pouch film, wherein the concave groove is formed in at least one of the first pouch film and the second pouch film, and the concave groove has a bottom surface on which the electrode assembly is placed so that the bottom surface has an area equal to or greater than an area of a reference surface that covers an opening of the concave groove, wherein the concave groove includes a first side surface region in which a full width of the concave groove is gradually decreased along the depth from the reference surface and a second side surface region in which the full width of the concave groove is gradually increased from an end point of the first side surface region to the bottom surface, and the electrode assembly is accommodated in the concave groove and is configured so that a plurality of battery cells (10-1, 10-2, 10-3, 10-4) is stacked, and a full width of each of the plurality of battery cells (10-1, 10-2, 10-3, 10-4) corresponds to the full width of the concave groove at a stacked location.
Electrophoretic display device: for use in a store, said electrophoretic display device comprising an electronic display comprising pixels, a means for providing power, a controller, a driver circuit for applying an electro-magnetic field to the pixels, a means for receiving data, wherein the electronic display is an electrophoretic display comprising pixels, the pixel comprising at least one aperture area being visible, a fluid comprising at least one type of pigment particles having a diameter smaller than 500 nm, the particles being charged, at least two electrodes (11,16) spaced apart for providing an electric-magnetic field, of which at least one electrode is an accumulation electrode and at least one electrode is a field electrode, wherein the at least one field electrode occupies a field electrode area, the field electrode area and aperture area largely coinciding, at least one storage area for storing the at least one type of pigment particles out of sight, wherein the at least one storage area comprises the accumulation electrode and is adjacent to the at least one aperture area and a restrictor for maintaining pigment particles in the storage area, characterized in that the display device comprises a unique code for identification, such as an RFID, in that the electronic display has a width < 50 cm, a height < 10 cm, and a thickness < 1 cm, and in that the restrictor is a temperature sensitive gel in the fluid, the gel having an increasing viscosity with increasing temperature. an electronic display comprising pixels, a means for providing power, a controller, a driver circuit for applying an electro-magnetic field to the pixels, a means for receiving data, wherein the electronic display is an electrophoretic display comprising pixels, the pixel comprising at least one aperture area being visible, a fluid comprising at least one type of pigment particles having a diameter smaller than 500 nm, the particles being charged, at least two electrodes (11,16) spaced apart for providing an electric-magnetic field, of which at least one electrode is an accumulation electrode and at least one electrode is a field electrode, wherein the at least one field electrode occupies a field electrode area, the field electrode area and aperture area largely coinciding, at least one storage area for storing the at least one type of pigment particles out of sight, wherein the at least one storage area comprises the accumulation electrode and is adjacent to the at least one aperture area and a restrictor for maintaining pigment particles in the storage area, characterized in that the display device comprises a unique code for identification, such as an RFID, in that the electronic display has a width < 50 cm, a height < 10 cm, and a thickness < 1 cm, and in that the restrictor is a temperature sensitive gel in the fluid, the gel having an increasing viscosity with increasing temperature.
Method allowing marking a unique code, comprising an isotropic signature, specific to liquids, preferably wines or spirits, of a place of origin or to by-products of this liquid, - providing the basic geographic signature of the liquid or its by-product, the SGB comprising: (i) the concentrations of at least 5, 6, 7, 8, 9, 10, 11, 12 or the entirety of the elements in group: Rb, Sr, B Li, Ca, Na, Mg, K, F, P, Cl, As, Pb, Cd, (ii) the concentrations of at least 5, 10, 15, 20, 25, 30, or the entirety of the elements in group: Be, Al, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, Ge, Se, Y, Zr, Nb, Mo, Rh, Pd, Ag, Sn, Sb, Te, I, Ba, Hf, Ta, W, Re, Ir, Hg, Ti, Si, and (iii) the concentrations of stable isotopes of at least 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10 of the elements in this group; - the method comprising the addition to this liquid having this BGS of a known quantity of at least 1 stable isotope of at least 1, 2 or 3 chemical elements of group, by means of which a liquid is obtained having a determined isotopic signature, with a modified isotope ratio compared with the BGS. - providing the basic geographic signature of the liquid or its by-product, the SGB comprising: (i) the concentrations of at least 5, 6, 7, 8, 9, 10, 11, 12 or the entirety of the elements in group: Rb, Sr, B Li, Ca, Na, Mg, K, F, P, Cl, As, Pb, Cd, (ii) the concentrations of at least 5, 10, 15, 20, 25, 30, or the entirety of the elements in group: Be, Al, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, Ge, Se, Y, Zr, Nb, Mo, Rh, Pd, Ag, Sn, Sb, Te, I, Ba, Hf, Ta, W, Re, Ir, Hg, Ti, Si, and (iii) the concentrations of stable isotopes of at least 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10 of the elements in this group; (i) the concentrations of at least 5, 6, 7, 8, 9, 10, 11, 12 or the entirety of the elements in group: Rb, Sr, B Li, Ca, Na, Mg, K, F, P, Cl, As, Pb, Cd, (ii) the concentrations of at least 5, 10, 15, 20, 25, 30, or the entirety of the elements in group: Be, Al, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, Ge, Se, Y, Zr, Nb, Mo, Rh, Pd, Ag, Sn, Sb, Te, I, Ba, Hf, Ta, W, Re, Ir, Hg, Ti, Si, and (iii) the concentrations of stable isotopes of at least 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10 of the elements in this group; - the method comprising the addition to this liquid having this BGS of a known quantity of at least 1 stable isotope of at least 1, 2 or 3 chemical elements of group, by means of which a liquid is obtained having a determined isotopic signature, with a modified isotope ratio compared with the BGS.
Respiratory protection system, in particular blower respiratory protection system, with a blower device (14a; 14b) comprising a fan (48a; 48b) for a generation of an airflow (50a; 50b), at least one filter element (52a; 52b) that is configured to be flowed through by the airflow (50a; 50b) and a housing unit (58a; 58b) which accommodates the fan (48a; 48b) and the at least one filter element (52a; 52b), and with at least one mouth protection device and with a vest that is to be worn by a user and on the back of which the blower device (14a; 14b) is arranged, characterized in that the housing unit (58a; 58b) has a thickness (d) of less than 70 mm, wherein the fan (48a; 48b) is arranged at least partly beside the at least one filter element (52a; 52b), wherein the airflow (50a; 50b) is deflected between the fan (48a; 48b) and the filter element (52a; 52b), wherein a flow-through direction (r 1) of the airflow (50a; 50b) through the filter element (52a; 52b) is substantially different from a flow-through direction (r 2) of the airflow (50a; 50b) through the fan (48a; 48b), wherein the at least one filter element (52a; 52b) has a main extension plane (54a; 54b) and the fan (48a; 48b) has a main extension plane (56a; 56b), wherein at least a large portion of normal vectors of the main extension plane (54a; 54b) of the filter element (52a; 52b), which intersect with the filter element (52a; 52b), is free of an intersection point with the fan (48a; 48b). at least one mouth protection device and with a vest that is to be worn by a user and on the back of which the blower device (14a; 14b) is arranged, characterized in that the housing unit (58a; 58b) has a thickness (d) of less than 70 mm, wherein the fan (48a; 48b) is arranged at least partly beside the at least one filter element (52a; 52b), wherein the airflow (50a; 50b) is deflected between the fan (48a; 48b) and the filter element (52a; 52b), wherein a flow-through direction (r 1) of the airflow (50a; 50b) through the filter element (52a; 52b) is substantially different from a flow-through direction (r 2) of the airflow (50a; 50b) through the fan (48a; 48b), wherein the at least one filter element (52a; 52b) has a main extension plane (54a; 54b) and the fan (48a; 48b) has a main extension plane (56a; 56b), wherein at least a large portion of normal vectors of the main extension plane (54a; 54b) of the filter element (52a; 52b), which intersect with the filter element (52a; 52b), is free of an intersection point with the fan (48a; 48b).