mhurhangee/ep-ind-claims huggingface dataset:
A laminate web comprising a nonwoven web in facing relationship with a polymer film, said laminate web comprising a first side comprising said polymer film and a plurality of discrete tufts comprising fibers integral with and extending from said nonwoven web, wherein each of said tufts has a tuft base proximal to said nonwoven web and a distal portion opposing said tuft base, wherein at least part of said distal portion of each of said tufts is covered by a cap, each said cap being an integral extension of said polymer film extending over said distal portion of a discrete said tuft, said cap comprising a first opening comprising a location of rupture in said polymer film above which said tuft extends, characterized in that said cap further comprises a second opening comprising a location of rupture in said polymer film above which said tuft extends and said cap integrally extends from said polymer film at at least two extension locations, each extension location adjacent a location of rupture, wherein said cap integrally extends from said polymer film at at least two opposing extension locations on opposing sides of said tuft and wherein for at least one of the first and second openings, the opening is narrower proximal the tuft base than at a location midway between the tuft base and the distal portion of the tuft, and wherein said polymer film is a microtextured polymer film comprising microfeatures, wherein a plurality of said microfeatures are between said tufts, wherein said microfeatures are microapertures or microbubbles.
A yeast transformed with at least two of the following: a) a nucleic acid molecule overexpressing a gene encoding an extracellular protein that degrades asparagine; b) a nucleic acid molecule expressing a protein that transports asparagine under food preparation/processing conditions; and c) a nucleic acid molecule reducing nitrogen catabolite repression. a) a nucleic acid molecule overexpressing a gene encoding an extracellular protein that degrades asparagine; b) a nucleic acid molecule expressing a protein that transports asparagine under food preparation/processing conditions; and c) a nucleic acid molecule reducing nitrogen catabolite repression.
An article comprising a thin film transistor, said thin film transistor comprising: a. a glass substrate having a first surface and a second surface; b. an organic semiconductor layer on the glass substrate having a first surface and a second surface; c. a dielectric layer on the semiconductor layer having a first surface and a second surface; and d. at least one additional electrode (32, 38, 40); wherein the thin film transistor does not contain a barrier layer for preventing ion migration between the organic semiconductor layer and the glass substrate, characterised in that the thin film transistor is a top-gate thin film transistor; in that the glass substrate is a strengthened glass substrate; and in that the glass substrate has a Vickers crack initiation threshold of at least 7 kgf. a. a glass substrate having a first surface and a second surface; b. an organic semiconductor layer on the glass substrate having a first surface and a second surface; c. a dielectric layer on the semiconductor layer having a first surface and a second surface; and d. at least one additional electrode (32, 38, 40); wherein the thin film transistor does not contain a barrier layer for preventing ion migration between the organic semiconductor layer and the glass substrate,
An implantable multi-purpose sensor array, comprising: a flexible substrate adapted for implantation in tissue of a patient; a two-dimensional array of electrodes arranged on said substrate; and analog or digital switches incorporated into the substrate, said switches arranged between adjacent electrodes on the substrate; characterised in that: the switches are configured to selectively connect respective adjacent electrodes to each other in response to logic so as to allow the dynamic creation of electrically connected contacts of arbitrary size. a flexible substrate adapted for implantation in tissue of a patient; a two-dimensional array of electrodes arranged on said substrate; and analog or digital switches incorporated into the substrate, said switches arranged between adjacent electrodes on the substrate; the switches are configured to selectively connect respective adjacent electrodes to each other in response to logic so as to allow the dynamic creation of electrically connected contacts of arbitrary size.
A partial denture mounting structure including an artificial tooth, a denture base that holds the artificial tooth, and a fitting member fixedly secured to the denture base and configured to be fitted to a clasped tooth, wherein said clasped tooth is anyone of a remaining natural tooth and an artificial tooth supported by an implant, covered by a clasped-tooth covering member that is made of dental cast alloy, and said clasped-tooth covering member has an artificial conical side surface, and characterized in that said fitting member is a cylindrical member, is made of dental cast alloy and is configured to cover at least a root portion of a side peripheral surface of the clasped tooth covered by said clasped-tooth covering member when fitted to the clasped tooth, making at least a top portion of the clasped tooth exposed from said fitting member.
A rotor hub fairing system for use in a counter-rotating, coaxial rotor system comprising: an upper hub fairing defined about an axis; a lower hub fairing defined about the axis; and a shaft fairing disposed between the upper hub fairing and the lower hub fairing, wherein a geometry of the shaft fairing is configured to encourage a wake adjacent the upper hub fairing to form collectively with a wake adjacent the lower hub fairing; wherein the shaft fairing includes a trailing edge extending aft of the upper hub fairing and the lower hub fairing, at least a portion of the trailing edge being generally curved; and wherein the shaft fairing includes a top surface positioned adjacent the upper hub fairing and the top surface adjacent the trailing edge curves downward towards a bottom surface of the shaft fairing; wherein at least a portion of the top surface is angled downwardly. characterized in that the angled portion of the top surface begins at a portion of the top surface adjacent a periphery of the upper hub fairing. an upper hub fairing defined about an axis; a lower hub fairing defined about the axis; and a shaft fairing disposed between the upper hub fairing and the lower hub fairing, wherein a geometry of the shaft fairing is configured to encourage a wake adjacent the upper hub fairing to form collectively with a wake adjacent the lower hub fairing; wherein the shaft fairing includes a trailing edge extending aft of the upper hub fairing and the lower hub fairing, at least a portion of the trailing edge being generally curved; and wherein the shaft fairing includes a top surface positioned adjacent the upper hub fairing and the top surface adjacent the trailing edge curves downward towards a bottom surface of the shaft fairing; wherein at least a portion of the top surface is angled downwardly. characterized in that the angled portion of the top surface begins at a portion of the top surface adjacent a periphery of the upper hub fairing.
A method of intercalating an insulating layer between a metal layer and a graphene layer, the method comprising: growing the graphene layer on the metal layer; disposing a first material on a surface of the graphene layer; intercalating the first material between the graphene layer and the metal layer by heating the first material at a first pressure and a first temperature; disposing a second material over the surface of the graphene layer; and intercalating the second material, wherein the second material includes at least one of oxygen and nitrogen, between the graphene layer and the metal layer by heating the second material at a second pressure and a second temperature, wherein the first material and the second material are chemically bonded such that the insulating layer is formed between the metal layer and the graphene layer and the insulating layer includes one of an oxide insulator and a nitride insulator, and characterised in that: the first pressure is lower than the second pressure, and the first temperature is higher than the second temperature. growing the graphene layer on the metal layer; disposing a first material on a surface of the graphene layer; intercalating the first material between the graphene layer and the metal layer by heating the first material at a first pressure and a first temperature; disposing a second material over the surface of the graphene layer; and intercalating the second material, wherein the second material includes at least one of oxygen and nitrogen, between the graphene layer and the metal layer by heating the second material at a second pressure and a second temperature, wherein the first material and the second material are chemically bonded such that the insulating layer is formed between the metal layer and the graphene layer and the insulating layer includes one of an oxide insulator and a nitride insulator, and characterised in that: the first pressure is lower than the second pressure, and the first temperature is higher than the second temperature. the first pressure is lower than the second pressure, and the first temperature is higher than the second temperature.
A rotary compressor system for an air conditioner, comprising: a motor controllable by sensorless vector control; a rotary compressor including the motor;and a sensorless vector control circuit configured to control the motor, characterized in that an outer diameter of a motor rotor of the motor is 46.8 mm or more and less than 50 mm; and a ratio of a whole cross-sectional area of winding slots to a whole cross-sectional area of a stator of the motor is 32%. a motor controllable by sensorless vector control; a rotary compressor including the motor;and a sensorless vector control circuit configured to control the motor, characterized in that an outer diameter of a motor rotor of the motor is 46.8 mm or more and less than 50 mm; and a ratio of a whole cross-sectional area of winding slots to a whole cross-sectional area of a stator of the motor is 32%.
A method of wirelessly exchanging plural sets of physical resource units, PRUs, between a base station and a mobile station, comprising: mapping physical resource units, PRUs, to at least one frequency partition by using first permutation for frequency selective allocation and second permutation for frequency diverse allocation, wherein the first permutation is performed in units of N_1 adjacent PRUs and the second permutation is performed in units of N_d adjacent PRUs, and wherein N_1 is larger than N_d. mapping physical resource units, PRUs, to at least one frequency partition by using first permutation for frequency selective allocation and second permutation for frequency diverse allocation, wherein the first permutation is performed in units of N_1 adjacent PRUs and the second permutation is performed in units of N_d adjacent PRUs, and wherein N_1 is larger than N_d.
A process for manufacturing an electrochemical cell, comprising the steps of (a) providing an open ended container having a first electrode defining a cavity lined by a separator; (b) providing a second electrode comprising a mixture of nonagglomerated particles of electrochemically active material and agglomerates of electrochemically active material wherein said electrochemically active material is selected from pure zinc and zinc alloy comprising one or more of the metals selected from the group consisting of indium, lead, bismuth, lithium, calcium and aluminum, and optionally, an organic agglomerant; (c) disposing said mixture into said separator lined cavity; and (d) securing a closure member to the open end of said container, characterised in that said agglomerates consist of agglomerated particles that pass through a 76 μm (200 mesh) opening in a sieving. (a) providing an open ended container having a first electrode defining a cavity lined by a separator; (b) providing a second electrode comprising a mixture of nonagglomerated particles of electrochemically active material and agglomerates of electrochemically active material wherein said electrochemically active material is selected from pure zinc and zinc alloy comprising one or more of the metals selected from the group consisting of indium, lead, bismuth, lithium, calcium and aluminum, and optionally, an organic agglomerant; (c) disposing said mixture into said separator lined cavity; and (d) securing a closure member to the open end of said container,
A blood purification apparatus comprising a holding device capable of holding container bags (B1-B3) that contain liquid for blood purification treatment, such as dialysate, substitution fluid, or anticoagulant, the blood purification apparatus being capable of performing blood purification treatment using the liquid in the container bags, wherein the holding device includes a main body portion a hanger portion that has attachment portions Z to which the container bags can be attached, and movable between a use position in which the container bags are used and a replacement position in which the container bags are replaced, measuring devices (g) capable of measuring the weight of the container bags held by the hanger portion, and a restricting device that restricts attachment and detachment of the container bags to and from the attachment portions when the hanger portion is in the use position.
- Diagnostic process for detecting errors in a cabling of a three phase motor in a "delta-inside" configuration with a soft starter to a three phases power supply, comprising, - after cabling a soft starter with the thyristor outputs (T1U, T1V, T1W) of the soft starter to the motor windings inputs (U1, V1, W1), cabling the motor windings outputs (U2, V2, W2) to the main phases (L1, L2, L3) and powering the power supply or prior to startup of the motor, at least a test process characterised by comprising: - at least a step of measuring, with voltage sensors (22a, 22b, 22c) connected to the Mains inputs (T1 L, T2 L, T3 L) of the soft starter, with voltage sensors (23a, 23b, 23c) connected to the motor outputs (T1 U, T2 V, T3 W) of the thyristors (T1, T2, T3) of the soft starter and with observer means (32, 33) within the soft starter, the voltages or sign of the voltages and phase angles of the Mains (L1, L2, L3) and motor lines (U, V, W) at the soft starter output in order to compare such voltages or sign of the voltages and phase angles without triggering said thyristors, - at least a step of calculating the differential angle Δθ between the motor electric rotation angle θ motor on the output side of the soft starter and the Mains electric rotation angle θ mains, - at least a step of comparing the calculated differential angle θ diff with known differential angles corresponding to a correct cabling differential angle and faulty cablings differential angles (220, 230, 240, 250, 260) in a sequence of tests (210, 220, 230, 240, 250, 260) to determine the status of the cabling, and wherein results of the test process are displayed (215, 225, 235, 245, 255, 265, 270) to show the status of said cabling. - after cabling a soft starter with the thyristor outputs (T1U, T1V, T1W) of the soft starter to the motor windings inputs (U1, V1, W1), cabling the motor windings outputs (U2, V2, W2) to the main phases (L1, L2, L3) and powering the power supply or prior to startup of the motor, at least a test process characterised by comprising: - at least a step of measuring, with voltage sensors (22a, 22b, 22c) connected to the Mains inputs (T1 L, T2 L, T3 L) of the soft starter, with voltage sensors (23a, 23b, 23c) connected to the motor outputs (T1 U, T2 V, T3 W) of the thyristors (T1, T2, T3) of the soft starter and with observer means (32, 33) within the soft starter, the voltages or sign of the voltages and phase angles of the Mains (L1, L2, L3) and motor lines (U, V, W) at the soft starter output in order to compare such voltages or sign of the voltages and phase angles without triggering said thyristors, - at least a step of calculating the differential angle Δθ between the motor electric rotation angle θ motor on the output side of the soft starter and the Mains electric rotation angle θ mains, - at least a step of comparing the calculated differential angle θ diff with known differential angles corresponding to a correct cabling differential angle and faulty cablings differential angles (220, 230, 240, 250, 260) in a sequence of tests (210, 220, 230, 240, 250, 260) to determine the status of the cabling,
Nail strip for a nail setting tool having a plurality of nails connected to one another for connecting at least two components, the nails having a nail shank and a nail tip provided thereon at the end, the nails being made of materials containing wood and/or wood-based materials and/or bamboo or palm fabric with a density greater than 0,65 g/cm 3 and being connected by detachable connecting means which are automatically sheared off when the nail is set, and the ratio of the length of the nail tip to the smallest thickness of the nail shaft being between 1,5 and 3, in particular between 1,5 and 2,5 and preferably between 1,8 and 2,1, characterized in that the nail tip is formed as a conical round tip.
An air seal in a gas turbine engine comprising: an abradable layer comprising a MAXMET composite material having MAX phase particles coated with a metallic shell. an abradable layer comprising a MAXMET composite material having MAX phase particles coated with a metallic shell.
A display apparatus comprising: a fixing bracket fixed, in use, to a wall; a wall mount coupled to the fixing bracket and configured to be set in a close contact mode in which the wall mount is adjacent to the wall and to be set in a tilting mode in which the wall mount is tilted with respect to the wall; and a display unit supported by the wall mount, the display unit comprising a first accommodating portion recessed in a rear surface of the display unit to accommodate the wall mount and the fixing bracket, and a wall mount coupling part to which the wall mount is coupled, wherein the rear surface of the display unit can be brought into close contacted with the wall when the wall mount is set to the close contact mode characterised in that the wall mount comprises: a first member comprising a shaft detachably coupled to the fixing bracket; a tilting member comprising a first rotating portion rotatably coupled to the first member; and a second member comprising a second rotating portion rotatably coupled to the first member and a guide slit guiding movement of one end portion of the tilting member. a fixing bracket fixed, in use, to a wall; a wall mount coupled to the fixing bracket and configured to be set in a close contact mode in which the wall mount is adjacent to the wall and to be set in a tilting mode in which the wall mount is tilted with respect to the wall; and a display unit supported by the wall mount, the display unit comprising a first accommodating portion recessed in a rear surface of the display unit to accommodate the wall mount and the fixing bracket, and a wall mount coupling part to which the wall mount is coupled, wherein the rear surface of the display unit can be brought into close contacted with the wall when the wall mount is set to the close contact mode characterised in that the wall mount comprises: a first member comprising a shaft detachably coupled to the fixing bracket; a tilting member comprising a first rotating portion rotatably coupled to the first member; and a second member comprising a second rotating portion rotatably coupled to the first member and a guide slit guiding movement of one end portion of the tilting member. a first member comprising a shaft detachably coupled to the fixing bracket; a tilting member comprising a first rotating portion rotatably coupled to the first member; and a second member comprising a second rotating portion rotatably coupled to the first member and a guide slit guiding movement of one end portion of the tilting member.
Tab for a torsional coupling having a) an elastomeric body; b) two fastening elements which are embedded into the elastomeric body and in each case have a bush which penetrates the elastomeric body; c) an endless thread bundle which is looped around the bushes of the fastening elements; d) two flanged sleeves which are fastened on opposite end regions of the bush and between which the thread bundle is guided in its deflection regions, each flanged sleeve (8, 9) comprising a short, tubular extension (8a, 9a) which is coaxial with respect to the bush and is pressed on the latter, and a radially extending collar (8a and 9b) of the flanged sleeve (8, 9) bearing from above and below, respectively, against the thread bundle in the wraparound region, characterized in that e) the ratio of the height H to the width B of the thread bundle is smaller than 2, H being the dimension of the thread bundle in the direction of the axis of the bushes, and B being the radial dimension of the thread bundle in its deflection regions. a) an elastomeric body; b) two fastening elements which are embedded into the elastomeric body and in each case have a bush which penetrates the elastomeric body; c) an endless thread bundle which is looped around the bushes of the fastening elements; d) two flanged sleeves which are fastened on opposite end regions of the bush and between which the thread bundle is guided in its deflection regions, each flanged sleeve (8, 9) comprising a short, tubular extension (8a, 9a) which is coaxial with respect to the bush and is pressed on the latter, and a radially extending collar (8a and 9b) of the flanged sleeve (8, 9) bearing from above and below, respectively, against the thread bundle in the wraparound region, e) the ratio of the height H to the width B of the thread bundle is smaller than 2,