mhurhangee/ep-ind-claims huggingface dataset:
An airbag apparatus, comprising: an airbag housed deployably; and a panel member covering the airbag in a deploying direction and forming a design surface of a vehicle cabin, the panel member being formed in a curved shape to protrude in the deploying direction of the airbag, wherein the panel member includes, on a surface facing the vehicle cabin, a character line located near an apex of the protruding portion of the panel member, the character line being formed of continuous protruding portions toward the deploying direction, the panel member includes, on a surface facing the airbag, aligned with the character line in the deploying direction, a tear line that ruptures at the time of deployment of the airbag, the character line and the tear line are spaced from each other in the deploying direction, characterized in that the airbag apparatus further comprises a spacer member configured to control a direction of a force to be transmitted from the airbag to the panel member, between the panel member and the airbag, in a portion of the airbag apparatus closer to the character line with respect to the tear line, and the spacer member is comprised of a plurality of ribs disposed to face the airbag at the time of deployment of the airbag. an airbag housed deployably; and a panel member covering the airbag in a deploying direction and forming a design surface of a vehicle cabin, the panel member being formed in a curved shape to protrude in the deploying direction of the airbag, wherein the panel member includes, on a surface facing the vehicle cabin, a character line located near an apex of the protruding portion of the panel member, the character line being formed of continuous protruding portions toward the deploying direction, the panel member includes, on a surface facing the airbag, aligned with the character line in the deploying direction, a tear line that ruptures at the time of deployment of the airbag, the character line and the tear line are spaced from each other in the deploying direction, characterized in that the airbag apparatus further comprises a spacer member configured to control a direction of a force to be transmitted from the airbag to the panel member, between the panel member and the airbag, in a portion of the airbag apparatus closer to the character line with respect to the tear line, and the spacer member is comprised of a plurality of ribs disposed to face the airbag at the time of deployment of the airbag.
A method for wireless computer mouse operation, the method comprising the acts of: detecting the presence of a user in close proximity to the wireless computer mouse by using a sensor; receiving a user detection signal from the sensor of the wireless computer mouse; determining an operation mode of the wireless computer mouse, by a controller, based, at least in part, on the user detection signal; enabling, by the controller, at least one of a short range wireless communication module and a global positioning receiver of the wireless computer mouse based on the operation mode determined by the controller, wherein if the user detection signal indicates that a user has not been detected, the enabling comprises disabling operation of the short range wireless communication module, and enabling operation of the global positioning receiver. detecting the presence of a user in close proximity to the wireless computer mouse by using a sensor; receiving a user detection signal from the sensor of the wireless computer mouse; determining an operation mode of the wireless computer mouse, by a controller, based, at least in part, on the user detection signal; enabling, by the controller, at least one of a short range wireless communication module and a global positioning receiver of the wireless computer mouse based on the operation mode determined by the controller, wherein if the user detection signal indicates that a user has not been detected, the enabling comprises disabling operation of the short range wireless communication module, and enabling operation of the global positioning receiver.
Mounting device for a sanitary element comprising a mounting frame to hold the sanitary element and a lighting unit connected to the mounting frame, which lighting unit comprises a first optical means having at least one light source for providing a first glow of light and at least one second optical means having at least one light source for providing a second glow of light, wherein the said glows of light (5, 6) can be output from the mounting device, wherein the lighting unit comprises a transparent or translucent covering, where the optical means (1, 2) are concealed by the covering and the glows of light (5, 6) can be output through the covering, wherein the covering extends along a longitudinal direction and has flat areas (8, 9), the first optical means being arranged in the region of a first flat area, via which the first glow of light can be exclusively or primarily output, and the second optical means being arranged in the region of a second flat area, via which the second glow of light can be output exclusively or primarily, the flat areas (8, 9) being at an angle to each other and wherein the mounting device further comprises a cover, which can be connected to the mounting frame via an upper side of the mounting frame, characterized in that the cover has a carrier element having holding points to hold the lighting unit or the optical means (1, 2) and a casing element that can be connected to the carrier element.
A method for the production of an integrally flavored non-fried snacks food product, characterized by the steps of: a. mixing at least one pre-gelatinized flour and non-pre-gelatinized ingredients, forming an homogenous mixture; b. adding water to the homogenous mixture, to achieve a moisture content in said homogeneous mixture of between 10% and 55% of humidity, resulting in an homogenous flour; c. cold extruding the homogenous flour so that said homogenous flour has no thermal treatment, thereby forming an extruded homogenous, moist solid product; d. drying the moist solid product to achieve a moisture content of between a 5% and 20%, yielding an intermediate product; and e. baking the intermediate product at a temperature of between 150°C to 250°C for 1 to 18 minutes, allowing the flow of hot air causing the water of the intermediate product to boil, obtaining a texturized non-fried food product. a. mixing at least one pre-gelatinized flour and non-pre-gelatinized ingredients, forming an homogenous mixture; b. adding water to the homogenous mixture, to achieve a moisture content in said homogeneous mixture of between 10% and 55% of humidity, resulting in an homogenous flour; c. cold extruding the homogenous flour so that said homogenous flour has no thermal treatment, thereby forming an extruded homogenous, moist solid product; d. drying the moist solid product to achieve a moisture content of between a 5% and 20%, yielding an intermediate product; and e. baking the intermediate product at a temperature of between 150°C to 250°C for 1 to 18 minutes, allowing the flow of hot air causing the water of the intermediate product to boil, obtaining a texturized non-fried food product.
Method for producing a composite material made of a metal-ceramic alloy, comprising the steps of: i. preparing a homogeneous mixture of metal powder and ceramic powder, the particle size of the metal powder being micrometric and the particle size of the ceramic powder being nanometric, ii. exposing said mixture to a focused energy source which selectively melts part of a bed of said powder mixture, wherein the ceramic powder is stabilized zirconia, said method being characterized in that said zirconia is yttria-stabilized zirconia with a concentration of yttrium oxide of between 11 and 30% by volume of the zirconia. i. preparing a homogeneous mixture of metal powder and ceramic powder, the particle size of the metal powder being micrometric and the particle size of the ceramic powder being nanometric, ii. exposing said mixture to a focused energy source which selectively melts part of a bed of said powder mixture, wherein the ceramic powder is stabilized zirconia, said method being characterized in that said zirconia is yttria-stabilized zirconia with a concentration of yttrium oxide of between 11 and 30% by volume of the zirconia. wherein the ceramic powder is stabilized zirconia, said method being characterized in that said zirconia is yttria-stabilized zirconia with a concentration of yttrium oxide of between 11 and 30% by volume of the zirconia.
A method of delivering a laundry serum composition into the wash or rinse cycle, comprising the steps of: a. Pouring a laundry liquid into a washing machine drawer, drum or a dosing shuttle b. Pouring a laundry serum composition on top of the laundry liquid Wherein the laundry serum composition comprises: a. 2 - 60 w.t.% benefit agent; b. less than 4 w.t.% surfactant; and c. water, wherein the benefit agent comprises: lubricants (including silicones); and wherein the laundry serum is a liquid product which is used in addition to the laundry liquid; and wherein the laundry serum floats on a laundry liquid with which it is used. a. Pouring a laundry liquid into a washing machine drawer, drum or a dosing shuttle b. Pouring a laundry serum composition on top of the laundry liquid Wherein the laundry serum composition comprises: a. 2 - 60 w.t.% benefit agent; b. less than 4 w.t.% surfactant; and c. water, a. 2 - 60 w.t.% benefit agent; b. less than 4 w.t.% surfactant; and c. water, wherein the benefit agent comprises: lubricants (including silicones); and wherein the laundry serum is a liquid product which is used in addition to the laundry liquid; and wherein the laundry serum floats on a laundry liquid with which it is used.
A circumferential coating material which mainly contains colloidal silica, silicon carbide, and titanium oxide different in average particle diameter from the silicon carbide, for coating, by forming a circumferential coating layer, a circumferential surface of a honeycomb structure monolithically formed by extrusion, including as a main component, cordierite having a porosity of 50 to 75%; wherein the circumferential coating material contains 15 to 50 mass% of the colloidal silica, 25 to 35 mass% of the silicon carbide, and 25 to 35 mass% of the titanium oxide; and wherein the average particle diameter of the silicon carbide is from 1.0 to 10 μm, and the average particle diameter of the titanium oxide is different from that of the silicon carbide and is from 0.1 to 1.0 μm. for coating, by forming a circumferential coating layer, a circumferential surface of a honeycomb structure monolithically formed by extrusion, including as a main component, cordierite having a porosity of 50 to 75%; wherein the circumferential coating material contains 15 to 50 mass% of the colloidal silica, 25 to 35 mass% of the silicon carbide, and 25 to 35 mass% of the titanium oxide; and wherein the average particle diameter of the silicon carbide is from 1.0 to 10 μm, and the average particle diameter of the titanium oxide is different from that of the silicon carbide and is from 0.1 to 1.0 μm.
Method for producing a connection between a sandwich element and a metal element, wherein the sandwich element has a dissimilar interlayer arranged between two cover elements, comprising at least the steps: providing the sandwich element and the metal element; placing the sandwich element and the metal element on top of one another so that they overlap at least in some regions; wherein the method is characterized by the following further steps: adding an additional material body from the sandwich-element side, such that the additional material body is received with its base body entirely in the sandwich element so as to break through the latter; and carrying out a refill friction stir welding process from the metal-element side so that a hybrid connection is formed, which has a mechanical connection between the additional material body and the sandwich element and a material-locking connection between the additional material body and the metal element. providing the sandwich element and the metal element; placing the sandwich element and the metal element on top of one another so that they overlap at least in some regions; wherein the method is characterized by the following further steps: adding an additional material body from the sandwich-element side, such that the additional material body is received with its base body entirely in the sandwich element so as to break through the latter; and carrying out a refill friction stir welding process from the metal-element side so that a hybrid connection is formed, which has a mechanical connection between the additional material body and the sandwich element and a material-locking connection between the additional material body and the metal element. adding an additional material body from the sandwich-element side, such that the additional material body is received with its base body entirely in the sandwich element so as to break through the latter; and carrying out a refill friction stir welding process from the metal-element side so that a hybrid connection is formed, which has a mechanical connection between the additional material body and the sandwich element and a material-locking connection between the additional material body and the metal element.
A method of inducing lactation in a transgenic animal, comprising: a) providing; i) a first composition comprising an estrogen compound, wherein said first composition is a pharmaceutically acceptable formulation; ii) a second composition comprising a dopaminergic antagonist, wherein said second composition is a pharmaceutically acceptable formulation; iii) a third composition comprising oxytocin, wherein said third composition is a pharmaceutically acceptable formulation; iv) a non-pregnant non-human mammal; b) sequentially administering to said mammal: i) a single dose of said first composition; ii) a single dose of said second composition; and iii) said third composition, either as a single dose or wherein said third composition is administered daily after administering said second composition, wherein the method comprises administering, on different days, a single dose of the estrogen compound, a single dose of the dopaminergic antagonist and either a single dose or daily doses of the oxytocin. a) providing; i) a first composition comprising an estrogen compound, wherein said first composition is a pharmaceutically acceptable formulation; ii) a second composition comprising a dopaminergic antagonist, wherein said second composition is a pharmaceutically acceptable formulation; iii) a third composition comprising oxytocin, wherein said third composition is a pharmaceutically acceptable formulation; iv) a non-pregnant non-human mammal; i) a first composition comprising an estrogen compound, wherein said first composition is a pharmaceutically acceptable formulation; ii) a second composition comprising a dopaminergic antagonist, wherein said second composition is a pharmaceutically acceptable formulation; iii) a third composition comprising oxytocin, wherein said third composition is a pharmaceutically acceptable formulation; iv) a non-pregnant non-human mammal; b) sequentially administering to said mammal: i) a single dose of said first composition; ii) a single dose of said second composition; and iii) said third composition, either as a single dose or wherein said third composition is administered daily after administering said second composition, wherein the method comprises administering, on different days, a single dose of the estrogen compound, a single dose of the dopaminergic antagonist and either a single dose or daily doses of the oxytocin. i) a single dose of said first composition; ii) a single dose of said second composition; and iii) said third composition, either as a single dose or wherein said third composition is administered daily after administering said second composition,
A method of adjusting an air-fuel ratio of a two-stroke crankcase-scavenged internal combustion engine, the air-fuel ratio being adjusted in a fuel supply section ( 8, 80) such as a carburetor or a fuel-injection system, and the fuel supply section ( 8, 80) including a control unit for adjusting said air-fuel ratio; the engine producing exhaust gases including gases resulting from an air-fuel mixture participating in combustion and additional gases resulting from scavenging, wherein the method comprises the step of providing an oxygen content sensing means in a substantially homogenous mixture of said exhaust gases resulting from combustion and gases resulting from scavenging and providing mixing means (130, 131,136) that enables mixing of the exhaust gases so as to achieve the homogenous mixture, the oxygen content sensing means being in the form of a conventional lambda sensor having step-type voltage characteristic and which is located in the substantially homogenous mixture in a muffler, the method further comprising the steps of: a) detecting an actual value of the oxygen concentration sensing means; b) comparing the actual value to a target value which target value being a lambda value of near 1 in the muffler; and c) adjusting the air-fuel ratio in response to said comparison to reduce the difference between the target value and the actual value. a) detecting an actual value of the oxygen concentration sensing means; b) comparing the actual value to a target value which target value being a lambda value of near 1 in the muffler; and c) adjusting the air-fuel ratio in response to said comparison to reduce the difference between the target value and the actual value.
An exhaust gas purification catalyst characterized by comprising a honeycomb substrate and a catalyst coating layer formed on a surface of the substrate, wherein the catalyst coating layer is formed into a layered structure having upper and lower layers with the lower layer being closer to the surface of the substrate and the upper layer being relatively farther therefrom, the catalyst coating layer is provided with Rh and Pd as precious metal catalysts, the catalyst coating layer is provided with an OSC material having an oxygen storage capacity as a support, the Rh is disposed in the upper layer of the catalyst coating layer, the Pd is disposed in both the upper layer and the lower layer of the catalyst coating layer, the support that supports the Rh in the upper layer is made of a ZrO 2 complex oxide that contains Y 2 O 3, at least a portion of the Pd in the upper layer and in the lower layer is supported on the OSC material, and a mass ratio of the Pd disposed in the upper layer to the Pd disposed in the lower layer is at least 0.01 and not more than 0.4, wherein an upstream end of the lower layer includes an extension region that extends beyond the upstream end of the upper layer, and a front-stage upper layer including Pd supported on a support is formed over a region corresponding to 10% to 40% of the total length of the substrate to downstream side from the upstream end of the substrate.
A power system comprising: a first controller configured to control a first generator; a second controller configured to control a second generator, the second generator electrically coupled with the first generator; and a plurality of rotational loads electrically coupled with the first generator and the second generator; the first controller configured to excite the first generator to generate alternating current, AC, electric power at a time of commencement of rotation of the first generator; the second controller configured to excite the second generator at the time of commencement of rotation of the first generator such that the second generator is energized to synchronously operate as a motor in response to receipt of the AC power generated by the first generator; and the second generator and the plurality of rotational loads configured to commence rotation with the first generator at the time of commencement of rotation of the first generator due to receipt of the AC electric power and the second controller configured to adjust a field current of the second generator by adjustment of a load power angle of the second generator to control stiffness of a magnetic coupling between the first generator, the second generator and the plurality of loads. a first controller configured to control a first generator; a second controller configured to control a second generator, the second generator electrically coupled with the first generator; and a plurality of rotational loads electrically coupled with the first generator and the second generator; the first controller configured to excite the first generator to generate alternating current, AC, electric power at a time of commencement of rotation of the first generator; the second controller configured to excite the second generator at the time of commencement of rotation of the first generator such that the second generator is energized to synchronously operate as a motor in response to receipt of the AC power generated by the first generator; and the second generator and the plurality of rotational loads configured to commence rotation with the first generator at the time of commencement of rotation of the first generator due to receipt of the AC electric power and the second controller configured to adjust a field current of the second generator by adjustment of a load power angle of the second generator to control stiffness of a magnetic coupling between the first generator, the second generator and the plurality of loads.
A method performed by a user terminal in a wireless communication system, the method comprising: selecting a wireless local area network, WLAN, from at least one WLAN access network based on a first policy; identifying whether a priority of the selected WLAN is higher than a priority of a cellular network for a packet data network, PDN, connection based on a second policy; and establishing (1025; 1030) the PDN connection over the selected WLAN or the cellular network based on a result of the identification, wherein selecting the WLAN comprises selecting, if the first policy includes information that S2a connectivity preference is set, the WLAN supporting S2a connectivity from the at least one WLAN access network. selecting a wireless local area network, WLAN, from at least one WLAN access network based on a first policy; identifying whether a priority of the selected WLAN is higher than a priority of a cellular network for a packet data network, PDN, connection based on a second policy; and establishing (1025; 1030) the PDN connection over the selected WLAN or the cellular network based on a result of the identification, wherein selecting the WLAN comprises selecting, if the first policy includes information that S2a connectivity preference is set, the WLAN supporting S2a connectivity from the at least one WLAN access network.
A method of operating an integrated access and backhaul, IAB, node connected to a plurality of parent nodes in a wireless communication system, the method comprising: detecting a first availability indication-downlink control information, AI-DCI, from a first parent node among the plurality of parent nodes; and detecting a second AI-DCI from a second parent node among the plurality of parent nodes, wherein based on the first AI-DCI indicating soft resources as available and the second AI-DCI indicating the soft resources as available, a distributed unit, DU, of the IAB node performs one of i) transmission, ii) reception and iii) either transmission or reception on the soft resources. detecting a first availability indication-downlink control information, AI-DCI, from a first parent node among the plurality of parent nodes; and detecting a second AI-DCI from a second parent node among the plurality of parent nodes, wherein based on the first AI-DCI indicating soft resources as available and the second AI-DCI indicating the soft resources as available, a distributed unit, DU, of the IAB node performs one of i) transmission, ii) reception and iii) either transmission or reception on the soft resources.