mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, by a wireless peripheral device (120A-H), a request from a wireless docking center device to activate and announce the wireless peripheral device's availability according to an identified application; activating and announcing, by the wireless peripheral device (120A-H), the wireless peripheral device's availability according to the identified application; and transmitting, by the wireless peripheral device (120A-H), to the wireless docking center device, in response to the request, an acknowledgement of the request, that the wireless peripheral device can satisfy the request, wherein the wireless peripheral device is an automobile. receiving, by a wireless peripheral device (120A-H), a request from a wireless docking center device to activate and announce the wireless peripheral device's availability according to an identified application; activating and announcing, by the wireless peripheral device (120A-H), the wireless peripheral device's availability according to the identified application; and transmitting, by the wireless peripheral device (120A-H), to the wireless docking center device, in response to the request, an acknowledgement of the request, that the wireless peripheral device can satisfy the request,
Endoscopic device, in particular a medical or industrial endoscopic device, wherein the endoscopic device has as components a light source, an optical fibre, a camera and an endoscope having an optical element (109, 113, 115) or a plurality of optical elements, wherein at least one optical element (109, 113, 115) has an optical marking (121, 123, 125) for verifying an identity of the optical element (109, 113, 115) and/or of the endoscope such that the optical marking (121, 123, 125) can be detected by the camera for verifying the identity and/or a configuration of the endoscopic device, characterised in that the camera has a zoom lens having an adjustment mechanism for changing a focal length such that the optical marking(s) (121, 123, 125) can be detected with the zoom lens in a range from a proximal end to a distal end of the endoscope, each in a defined marking zoom position.
A method of securing a liner sleeve within a host pipe of a bimetallic mechanically-lined pipe, the mechanically-lined pipe having a bonded inboard region in which the liner sleeve is bonded mechanically to the host pipe and an unbonded outboard region extending longitudinally from the inboard region toward an end of the mechanically-lined pipe, the method comprising: inserting a friction stir welding tool into the mechanically-lined pipe; driving the FSW tool, when spinning about a spin axis, into the liner sleeve to form a thermo-mechanically affected zone (TMAZ) in which metal of the liner sleeve is bonded with metal of the host pipe; and effecting relative movement between the spinning FSW tool and the mechanically-lined pipe with respect to a central longitudinal axis of the mechanically-lined pipe to extend the TMAZ along a weld path in the previously unbonded outboard region. inserting a friction stir welding tool into the mechanically-lined pipe; driving the FSW tool, when spinning about a spin axis, into the liner sleeve to form a thermo-mechanically affected zone (TMAZ) in which metal of the liner sleeve is bonded with metal of the host pipe; and effecting relative movement between the spinning FSW tool and the mechanically-lined pipe with respect to a central longitudinal axis of the mechanically-lined pipe to extend the TMAZ along a weld path in the previously unbonded outboard region.
A device for isolating periphery circulating tumor cells or rare cells, comprising: a metal filter having depressions that can capture periphery circulating tumor cells or rare cells that are in a body fluid; and pores that are formed at the depressions and that can pass therethrough body fluid cells other than the periphery circulating tumor cells or the rare cells, characterised in that the metal filter comprises palladium or a palladium/nickel alloy. a metal filter having depressions that can capture periphery circulating tumor cells or rare cells that are in a body fluid; and pores that are formed at the depressions and that can pass therethrough body fluid cells other than the periphery circulating tumor cells or the rare cells, characterised in that the metal filter comprises palladium or a palladium/nickel alloy.
A coating system disposed on a surface of a substrate, the coating system comprising: a bond coating on the surface of the substrate; a protective coating on the bond coating for protecting the bond coating, wherein the protective coating comprises a ceramic material; a thermal barrier coating on the protective coating, wherein the thermal barrier coating defines a plurality of elongated surface-connected voids; and a protective agent disposed within at least some of the elongated surface-connected voids of the thermal barrier coating, wherein the protective agent is capable of reacting with a liquid CMAS material to form a solid reaction product which acts as a barrier against liquid CMAS material ingress into the elongated surface-connected voids in which the protective agent is disposed, wherein the protective agent comprises a substance capable of chemically reacting with liquid nominal CMAS to form a solid crystalline product outside the crystallization field of said liquid nominal CMAS, wherein "liquid nominal CMAS" refers to the following liquid nominal CMAS composition, with all percentages in mole percent: 41.6% silica (SiO 2), 29.3% calcia (CaO), 12.5% alumina (AlO 1.5), 9.1% magnesia (MgO), 6.0% iron oxide (FeO 1.5), and 1.5% nickel oxide (NiO), wherein a material is outside the crystallization field of the liquid nominal CMAS composition if it is not included in the set of crystalline phases that can be formed from combinations of the component oxides of the liquid nominal CMAS composition. a bond coating on the surface of the substrate; a protective coating on the bond coating for protecting the bond coating, wherein the protective coating comprises a ceramic material; a thermal barrier coating on the protective coating, wherein the thermal barrier coating defines a plurality of elongated surface-connected voids; and a protective agent disposed within at least some of the elongated surface-connected voids of the thermal barrier coating, wherein the protective agent is capable of reacting with a liquid CMAS material to form a solid reaction product which acts as a barrier against liquid CMAS material ingress into the elongated surface-connected voids in which the protective agent is disposed, wherein the protective agent comprises a substance capable of chemically reacting with liquid nominal CMAS to form a solid crystalline product outside the crystallization field of said liquid nominal CMAS, wherein "liquid nominal CMAS" refers to the following liquid nominal CMAS composition, with all percentages in mole percent: 41.6% silica (SiO 2), 29.3% calcia (CaO), 12.5% alumina (AlO 1.5), 9.1% magnesia (MgO), 6.0% iron oxide (FeO 1.5), and 1.5% nickel oxide (NiO), wherein a material is outside the crystallization field of the liquid nominal CMAS composition if it is not included in the set of crystalline phases that can be formed from combinations of the component oxides of the liquid nominal CMAS composition.
Double containment shell having an inner shell and an outer shell whose walls enclose an intermediate space with a cylindrical region, characterised in that the cylindrical region is filled with a firm graphite insert having high thermal conductivity, wherein the intermediate space comprises an insulated thermocouple for leakage monitoring of the double containment shell and that the graphite insert consists of a powdery material which can be solidified after filling.
A method of controlling a wind turbine comprising a tower supporting a rotor comprising three pitch-adjustable rotor blades, the method comprising: obtaining a movement signal indicative of a vibrational movement of the tower; determining an actuator signal (θ P) based on the movement signal, the actuator signal (θ P) being determined to produce a desired force to counteract the vibrational movement of the tower; determining a pitch reference offset signal (θ 1, θ 2, θ 3) for each one of the three pitch-adjustable rotor blades based on the actuator signal (θ P); applying an integration of the pitch reference offset signals (θ 1, θ 2, θ 3); determining modified pitch reference offset signals (θ mod1, θ mod2, θ mod3) based on the integrated pitch reference offset signals; determining a pitch signal (θ A, θ B, θ C) for each one of the three pitch-adjustable rotor blades based on the modified pitch reference offset signals (θ mod1, θ mod2, θ mod3); and, adjusting a pitch of the pitch-adjustable rotor blades based on the respective determined pitch signals (θ A, θ B, θ C). obtaining a movement signal indicative of a vibrational movement of the tower; determining an actuator signal (θ P) based on the movement signal, the actuator signal (θ P) being determined to produce a desired force to counteract the vibrational movement of the tower; determining a pitch reference offset signal (θ 1, θ 2, θ 3) for each one of the three pitch-adjustable rotor blades based on the actuator signal (θ P); applying an integration of the pitch reference offset signals (θ 1, θ 2, θ 3); determining modified pitch reference offset signals (θ mod1, θ mod2, θ mod3) based on the integrated pitch reference offset signals; determining a pitch signal (θ A, θ B, θ C) for each one of the three pitch-adjustable rotor blades based on the modified pitch reference offset signals (θ mod1, θ mod2, θ mod3); and, adjusting a pitch of the pitch-adjustable rotor blades based on the respective determined pitch signals (θ A, θ B, θ C).
A refrigerator comprising: a main body (11, 80A) having a refrigerating compartment (13, 80B) and a freezing compartment (12, 80C); a door (14, 15, 81, 84) to open or close the refrigerating compartment (13, 80B) or the freezing compartment (12, 80C); a dispenser (20, 87) disposed in the door (15, 81) to dispense cold water; a filter unit disposed within the refrigerating compartment (13, 80B) to purify water supplied from a water supply source outside the main body (11, 80A); a water tank disposed in the main body (11, 80A) to store the water supplied from the filter unit and to cool the stored water characterized in that the water tank cools the stored water by using cool air within the refrigerating compartment (13, 80B), and in that the refrigerator further comprises a tube tank assembly (70, 930) disposed in the door (15, 81) to store the cold water cooled in the water tank, wherein the tube tank assembly (70, 930) comprises: a tube to define a cold water passage through which the cold water flows; and a tube support (710, 931) around which the tube is wound several times, wherein the tube support (710, 931) comprises: a support plate (711, 932) to support the tube; an extension part (712, 936) around which the tube is wound, the extension part (712, 936) extending from the support plate (711, 932); and a separation prevention part (713, 937) to prevent the tube wound around the extension part (712, 936) from being separated from the extension part (712, 936). a main body (11, 80A) having a refrigerating compartment (13, 80B) and a freezing compartment (12, 80C); a door (14, 15, 81, 84) to open or close the refrigerating compartment (13, 80B) or the freezing compartment (12, 80C); a dispenser (20, 87) disposed in the door (15, 81) to dispense cold water; a filter unit disposed within the refrigerating compartment (13, 80B) to purify water supplied from a water supply source outside the main body (11, 80A); a water tank disposed in the main body (11, 80A) to store the water supplied from the filter unit and to cool the stored water characterized in that a tube to define a cold water passage through which the cold water flows; and a tube support (710, 931) around which the tube is wound several times, a support plate (711, 932) to support the tube; an extension part (712, 936) around which the tube is wound, the extension part (712, 936) extending from the support plate (711, 932); and a separation prevention part (713, 937) to prevent the tube wound around the extension part (712, 936) from being separated from the extension part (712, 936).
A composition comprising a saccharide fatty acid ester (SFAE) bound cellulose-based material, wherein said SFAE bound cellulose-based material is a film or paper, said SFAE is present at a sufficient concentration to cause the bound cellulose-based material to exhibit a water contact angle of equal to or greater than 90°, wherein said water contact angle is effected in the absence of any secondary hydrophobes, wherein said water contact angle is determined by an optical tensiometer, and wherein said SFAE is present at a concentration of at least 0.025% (wt/wt) of a total amount of cellulose fiber present in said film or paper.
A computer-implemented method for viewing changes to an original optimization plan for a query to a database, the database having an original table with data stored therein, and the query including a reference to the original table, characterised by the method comprising: defining a virtual table that is a copy of the original table but which excludes data stored in the rows of the original table, wherein defining a virtual table includes copying the original table statistics to the virtual table, wherein the original table statistics include column statistics, histograms and segment storage; defining a virtual index, the virtual index being an index associated with the virtual table; replacing, in the query, the reference to the original table with a reference to the virtual table; determining a new optimization plan for the query; replacing, in the new optimization plan, a reference to the virtual table with a reference to the original table; and displaying the new optimization plan. defining a virtual table that is a copy of the original table but which excludes data stored in the rows of the original table, wherein defining a virtual table includes copying the original table statistics to the virtual table, wherein the original table statistics include column statistics, histograms and segment storage; defining a virtual index, the virtual index being an index associated with the virtual table; replacing, in the query, the reference to the original table with a reference to the virtual table; determining a new optimization plan for the query; replacing, in the new optimization plan, a reference to the virtual table with a reference to the original table; and displaying the new optimization plan.
A device for protecting an electric system against overvoltage occurrences, the electric system being adapted to be subjected to voltages, which device comprises a plurality of surge arresters (106, 108) and comprises detection means for detecting overvoltage occurrences in the electric system, the surge arresters (106, 108) of said plurality of surge arresters being connected in series, and said plurality of surge arresters comprises a first surge arrester which is connectable to ground and a second surge arrester which is connectable to the electric system which is to be protected, the device comprises a switching means connected in parallel with the first surge arrester, and the switching means is adapted to be open when no overvoltage occurrence is detected and adapted to close upon overvoltage occurrence detection and short-circuit the first surge arrester, characterized in that the first surge arrester has a lower knee-point voltage in relation to the other surge arresters (106, 108) of said plurality of surge arresters and a lower knee-point voltage in relation to the second surge arrester, where the knee-point value of the first surge arrester is a normalized voltage value of 0.8 p.u. and the knee-point value of the second surge arrester is a normalized voltage value of 1.0 p.u.
Traffic guide wall having wall sections, disposed in wall longitudinal direction one after another and connected at their end faces with one another, which in their interior are reinforced with main reinforcements (17, 18), extending at least in wall longitudinal direction, which are connected at wall connectors (15a, b) disposed at the face ends (13, 14) of the wall sections, wherein the wall sections have at least in each case two main reinforcements (17, 18) disposed next to one another as reinforcement pair, characterised in that the wall connectors (15a, b) of the wall sections disposed adjacent to one another are equipped with groove and tongue elements (22, 23) disposed in complementary manner to one another, which are disposed obliquely at an angle (α) to the wall longitudinal direction and that the wall connectors (15a, b), coupled with one another, of two adjacent wall sections form reinforcement deviations with alternation of the pulling and pushing sides (Z, d; Z', d'; Z", d") of the main reinforcements (17, 18) which are disposed in pairs.
A cleaning method of an aluminum nitride single crystal substrate comprising, a scrub cleaning step wherein a surface of the aluminum nitride single crystal substrate is scrubbed by moving a polymer compound material in a parallel direction of the surface of said substrate while said polymer compound material contacting the surface of said substrate, and said polymer compound material has a lower hardness than the aluminum nitride single crystal and absorbed with an alkaline aqueous solution having concentration of 0.05 to 0.5 wt% of an alkaline which is selected from the group consisting of potassium hydroxide and sodium hydroxide.
A high voltage DC power cable (1-1; 1-2; 1-3) designed for voltages of 320 kV or higher, comprising: a multi-wire conductor, an inner semiconducting layer arranged around the multi-wire conductor, the inner semiconducting layer forming a screen layer for the multi-wire conductor, a solid insulation system arranged around the inner semiconducting layer, and a water-blocking compound configured to restrict water migration into the high voltage DC power cable (1-1; 1-2; 1-3), wherein the water-blocking compound is electrically conducting, characterised in that the water-blocking compound is a liquid with a viscosity greater than 20 Pα · s at a temperature of 20°C, and in that the water-blocking compound comprises a carbon-based component which provides the electric conductivity of the water-blocking compound, wherein the carbon-based component is graphite, wherein the water-blocking compound comprises polybutadiene, and an antioxidant. a multi-wire conductor, an inner semiconducting layer arranged around the multi-wire conductor, the inner semiconducting layer forming a screen layer for the multi-wire conductor, a solid insulation system arranged around the inner semiconducting layer, and a water-blocking compound configured to restrict water migration into the high voltage DC power cable (1-1; 1-2; 1-3), wherein the water-blocking compound is electrically conducting, characterised in that the water-blocking compound is a liquid with a viscosity greater than 20 Pα · s at a temperature of 20°C, and in that the water-blocking compound comprises a carbon-based component which provides the electric conductivity of the water-blocking compound, wherein the carbon-based component is graphite, wherein the water-blocking compound comprises polybutadiene, and an antioxidant.
An aqueous polyurethane-urea dispersion, comprising a polyurethane-urea dispersed therein having sulfonate and/or carboxylate groups and lateral carboxyl groups, wherein an amount of said sulfonate and/or carboxylate groups is 1.5 to 15 mmol/100g; said lateral carboxyl groups are introduced by an aminocarboxylic acid having an amino functionality of 2 - 4; an amount of said lateral carboxyl groups is 1.5 to 9.5 mmol/100g, based on the polyurethane-urea solid components.
A method for prelithiating a soft carbon negative electrode, comprising the steps of: a) disposing the soft carbon negative electrode and a lithium metal piece spaced apart from each other such that a lithium-containing electrolyte is present therebetween; b) prelithiating the soft carbon negative electrode at a first constant C-rate until a voltage of the soft carbon negative electrode is reduced to a first predetermined voltage that is not greater than 0.3 V vs. Li/Li +, the first constant C-rate being not greater than 5 C; characterized in that it comprises the steps of c) after step b), prelithiating the soft carbon negative electrode at a second constant C-rate until the voltage of the soft carbon negative electrode is reduced to a second predetermined voltage that is lower than the first predetermined voltage, the second constant C-rate being not greater than 0.2 C and being less than the first constant C-rate; and d) after step c), prelithiating the soft carbon negative electrode at a prelithiation constant voltage which is not greater than the second predetermined voltage, thereby completing prelithiation of the soft carbon negative electrode. a) disposing the soft carbon negative electrode and a lithium metal piece spaced apart from each other such that a lithium-containing electrolyte is present therebetween; b) prelithiating the soft carbon negative electrode at a first constant C-rate until a voltage of the soft carbon negative electrode is reduced to a first predetermined voltage that is not greater than 0.3 V vs. Li/Li +, the first constant C-rate being not greater than 5 C; characterized in that it comprises the steps of c) after step b), prelithiating the soft carbon negative electrode at a second constant C-rate until the voltage of the soft carbon negative electrode is reduced to a second predetermined voltage that is lower than the first predetermined voltage, the second constant C-rate being not greater than 0.2 C and being less than the first constant C-rate; and d) after step c), prelithiating the soft carbon negative electrode at a prelithiation constant voltage which is not greater than the second predetermined voltage, thereby completing prelithiation of the soft carbon negative electrode.
A method of manufacturing of a silicon dioxide layer of low roughness, comprising the step of: - depositing a layer of silicon dioxide on a substrate, - annealing said silicon dioxide layer at a temperature between 600°C and 1200°C, for a duration between 10 minutes and 6 hours, characterized in that the deposition step is carried out by a low pressure chemical vapour deposition (LPCVD) process, at a deposition pressure comprised between 10 and 1000 Pa, at a temperature comprised between 625°C and 725°C, the deposition process employing simultaneously a flow of tetraethylorthosilicate (TEOS) as the source material for the film deposition and a flow of a diluant gas that is not reactive with TEOS, so that the diluant gas / TEOS ratio is between 0.5 and 100. - depositing a layer of silicon dioxide on a substrate, - annealing said silicon dioxide layer at a temperature between 600°C and 1200°C, for a duration between 10 minutes and 6 hours,