mhurhangee/ep-ind-claims huggingface dataset:
Display element, wherein the display element comprises a plurality of adjacently arranged light chambers, each having a light barrier to a respective adjacent light chamber, wherein the light chambers each have a light conductor, wherein the light barrier is formed from one side of the light conductor, which is opaque or partially opaque, characterized in that the light conductor is spaced apart from a light conductor of the respective adjacent light chamber.
A mechanical apparatus comprising: a. a base; b. an inner space frame armature, c. an outer space frame armature of a shape geometrically similar to said inner space frame armature and scaled larger than said inner space-frame armature; further, said inner armature being substantially contained within said outer armature; d. an axle, said axle being supported from said base in a vertical orientation with said outer armature rotatably disposed about said axle; e. a motive source operatively coupled to said inner armature and; f. a motive source operatively coupled to said outer armature; said motive sources so constituted and configured and coupled to said respective armatures as to engender said armatures to rotate about the line of said axle in mutually opposite directions when said motive sources are energized and activated; further, said armatures each comprise rods (128, 129, 131) constituting the space frame in the form of a set of geometric shapes including an upper and a lower right square pyramid disposed with their respective bases (122, 133) in parallel planes and their apexes (126, 136) such that a line through the apex points would be perpendicular to the planes of their bases; further, the mutual alignment of said pyramids is such that a side of the base of the upper pyramid is at a 45-degree angle to a side of the base of the lower pyramid; still further, the pyramids are mutually spaced apart and rigidly connected to each other by two rods extending from each corner of the upper pyramid to the two respective closest corners of the base of the lower pyramid. a. a base; b. an inner space frame armature, c. an outer space frame armature of a shape geometrically similar to said inner space frame armature and scaled larger than said inner space-frame armature; further, said inner armature being substantially contained within said outer armature; d. an axle, said axle being supported from said base in a vertical orientation with said outer armature rotatably disposed about said axle; e. a motive source operatively coupled to said inner armature and; f. a motive source operatively coupled to said outer armature; said motive sources so constituted and configured and coupled to said respective armatures as to engender said armatures to rotate about the line of said axle in mutually opposite directions when said motive sources are energized and activated; further, said armatures each comprise rods (128, 129, 131) constituting the space frame in the form of a set of geometric shapes including an upper and a lower right square pyramid disposed with their respective bases (122, 133) in parallel planes and their apexes (126, 136) such that a line through the apex points would be perpendicular to the planes of their bases; further, the mutual alignment of said pyramids is such that a side of the base of the upper pyramid is at a 45-degree angle to a side of the base of the lower pyramid; still further, the pyramids are mutually spaced apart and rigidly connected to each other by two rods extending from each corner of the upper pyramid to the two respective closest corners of the base of the lower pyramid.
An Fe-based metal sheet, comprising: at least one type of ferrite-forming element except Fe, wherein when intensity ratios of respective <470>, <6 12 1>, and <692> directions in a sheet plane by X-ray diffraction are set to A, B, and C respectively and Z = (A + 0.97B)/0.98C is satisfied, a Z value is not less than 2.0 nor more than 200.
A method in a power system infrastructure for controlling power supplied to a plurality of data processing machines, wherein the power system infrastructure comprises a plurality of power supply units, the method comprising: receiving a plurality of power demand values, wherein the power demand values are associated with a respective plurality of data processing instances to be executed on the plurality of data processing machines (step 101), and wherein the power demand values are based on historical data in connection with how much energy is required to run a particular data processing instance; estimating a total power demand value based on the received power demand values (step 103); and controlling the power system infrastructure to provide power to the plurality of data processing machines based on the estimated total power demand value (step 105). receiving a plurality of power demand values, wherein the power demand values are associated with a respective plurality of data processing instances to be executed on the plurality of data processing machines (step 101), and wherein the power demand values are based on historical data in connection with how much energy is required to run a particular data processing instance; estimating a total power demand value based on the received power demand values (step 103); and controlling the power system infrastructure to provide power to the plurality of data processing machines based on the estimated total power demand value (step 105).
A vacuum cleaner comprising: a body portion including an electric blower; a handle arranged on the body portion; a dust-collecting unit communicating with a suction side of the electric blower so as to catch and collect dust and dirt by operation of the electric blower; a main body connecting port arranged on the body portion so as to communicate to the dust-collecting unit; an exhaust port arranged on the body portion; an exhaust air path arranged in the body portion so as to communicate between an exhaust side of the electric blower and the exhaust port; a connecting port arranged on the body portion; a blower air path arranged in the body portion so as to communicate between the exhaust side of the electric blower and the connecting port; switching means arranged capable of opening and closing the connecting port, so as to switch between the exhaust air path and the blower air path according to the opening and closing; and an attachment including a discharge port, when being attached to the connecting port, communicating with the blower air path upon switching by the switching means, characterized in that, the main body connecting port and the discharge port are located in front of the handle respectively, and a direction sucking from the main body connecting port and a direction exhausting from the discharge port are opposite each other. a body portion including an electric blower; a handle arranged on the body portion; a dust-collecting unit communicating with a suction side of the electric blower so as to catch and collect dust and dirt by operation of the electric blower; a main body connecting port arranged on the body portion so as to communicate to the dust-collecting unit; an exhaust port arranged on the body portion; an exhaust air path arranged in the body portion so as to communicate between an exhaust side of the electric blower and the exhaust port; a connecting port arranged on the body portion; a blower air path arranged in the body portion so as to communicate between the exhaust side of the electric blower and the connecting port; switching means arranged capable of opening and closing the connecting port, so as to switch between the exhaust air path and the blower air path according to the opening and closing; and an attachment including a discharge port, when being attached to the connecting port, communicating with the blower air path upon switching by the switching means, characterized in that, the main body connecting port and the discharge port are located in front of the handle respectively, and a direction sucking from the main body connecting port and a direction exhausting from the discharge port are opposite each other.
An article comprising a woven fabric comprising warp yarns and weft yarns, wherein at least one of either the warp yarns or the weft yarns includes: a) a corespun elastic base yarn having a tex (denier) and comprising staple fiber and an elastic fiber core; and b) a separate control yarn selected from the group consisting of a single filament yarn, a multiple filament yarn, a composite yarn, and combinations thereof; characterized in that said separate control yarn has a tex (denier) greater than zero to 0.8 times the tex (denier) of the corespun elastic base yarn; and in that the woven fabric includes 1) a ratio of corespun base yarn ends to control yarn ends of up to 6:1; or 2) a ratio of corespun base yarn picks to control yarn picks of up to 6:1;or 3) both a ratio of corespun base yarn ends to control yarn ends of up to 6:1; and a ratio of corespun base yarn picks to control yarn picks of up to 6:1. a) a corespun elastic base yarn having a tex (denier) and comprising staple fiber and an elastic fiber core; and b) a separate control yarn selected from the group consisting of a single filament yarn, a multiple filament yarn, a composite yarn, and combinations thereof; characterized in that said separate control yarn has a tex (denier) greater than zero to 0.8 times the tex (denier) of the corespun elastic base yarn; and in that the woven fabric includes 1) a ratio of corespun base yarn ends to control yarn ends of up to 6:1; or 2) a ratio of corespun base yarn picks to control yarn picks of up to 6:1;or 3) both a ratio of corespun base yarn ends to control yarn ends of up to 6:1; and a ratio of corespun base yarn picks to control yarn picks of up to 6:1. 1) a ratio of corespun base yarn ends to control yarn ends of up to 6:1; or 2) a ratio of corespun base yarn picks to control yarn picks of up to 6:1;or 3) both a ratio of corespun base yarn ends to control yarn ends of up to 6:1; and a ratio of corespun base yarn picks to control yarn picks of up to 6:1.
A forming structure for use in making macroscopically expanded, three-dimensional, apertured polymeric webs; said forming structure comprising: a. a plurality of forming structure interconnecting members that define a plurality of forming structure apertures, said forming structure apertures permitting fluid communication between opposing first and second surfaces (900,850) of said forming structure; b. a plurality of protrusions extending from said first surface of said forming structure; and c. characterized by said protrusions being generally columnar forms having an average aspect hp/dp of at least about 1 and having a density of at least 1550 protrusions per square centimeter. a. a plurality of forming structure interconnecting members that define a plurality of forming structure apertures, said forming structure apertures permitting fluid communication between opposing first and second surfaces (900,850) of said forming structure; b. a plurality of protrusions extending from said first surface of said forming structure; and c. characterized by said protrusions being generally columnar forms having an average aspect hp/dp of at least about 1 and having a density of at least 1550 protrusions per square centimeter.
Polypropylene composition comprising: - 40-90 % by total weight of the composition of a polymer blend comprising polypropylene having a melt flow index as measured according to ISO 1133 at 230 °C and 2.16 kg of 2.0-100 g/10 min; - 5-25 % by total weight of the composition of one or more ethylene/a-olefin copolymers with a density of 0.85-0.91 g/cm 3 and a melt flow index of 0.2-80 g/10 min (190°C, 2.16 kg); - 0.5-25 % by total weight of the composition of mineral filler selected from the group consisting of phyllosilicates, mica or wollastonite; and - 0.2-4 % by total weight of the composition of glass fibres having an average fibre diameter in the range of 5-30 μm. - 40-90 % by total weight of the composition of a polymer blend comprising polypropylene having a melt flow index as measured according to ISO 1133 at 230 °C and 2.16 kg of 2.0-100 g/10 min; - 5-25 % by total weight of the composition of one or more ethylene/a-olefin copolymers with a density of 0.85-0.91 g/cm 3 and a melt flow index of 0.2-80 g/10 min (190°C, 2.16 kg); - 0.5-25 % by total weight of the composition of mineral filler selected from the group consisting of phyllosilicates, mica or wollastonite; and - 0.2-4 % by total weight of the composition of glass fibres having an average fibre diameter in the range of 5-30 μm.
A base station that is arranged to communicate with a mobile station consecutively transmitting four packets for one session, the base station comprising: a measuring unit that is arranged to use a predetermined threshold value to determine reception quality of the four consecutive packets received from the mobile station; and a control unit that is arranged to, in response to a result of the measurement by the measuring unit, execute control to output any one among first and second notification information; characterised in that: the first notification information is to cause the mobile station to transmit one new packet and three duplicated packets thereof for one session and the second notification information is to cause the mobile station to transmit two new packets that are different from each other and two duplicated packets thereof for one session. a measuring unit that is arranged to use a predetermined threshold value to determine reception quality of the four consecutive packets received from the mobile station; and a control unit that is arranged to, in response to a result of the measurement by the measuring unit, execute control to output any one among first and second notification information; characterised in that: the first notification information is to cause the mobile station to transmit one new packet and three duplicated packets thereof for one session and the second notification information is to cause the mobile station to transmit two new packets that are different from each other and two duplicated packets thereof for one session. the first notification information is to cause the mobile station to transmit one new packet and three duplicated packets thereof for one session and the second notification information is to cause the mobile station to transmit two new packets that are different from each other and two duplicated packets thereof for one session.
A relaxation device including: a body supporting means for supporting a user's body; a rocking driving means, including a motor capable of producing normal rotation and reverse rotation, for rocking the body supporting means by driving and producing rotation with the motor; and a control means for controlling rotation of the motor to rock the body supporting means; the relaxation device being characterized in that: the rocking driving means includes a speed reducer connected to the motor for outputting the drive force from the motor 20 at a reduced speed, and a conversion mechanism that converts both alternating normal and reverse rotation and single-direction rotation into a rocking movement of the body supporting means; wherein the conversion mechanism includes a crank mechanism including a crank, a rod and links, wherein the crank has a basal end connected to an output shaft of the speed reducer in an integrally rotatable manner, and the crank has a distal end connected in a rotatable manner to a basal end of the rod, the control means controls the motor to produce rotation in a single direction when rocking the body supporting means at maximum amplitude. a body supporting means for supporting a user's body; a rocking driving means, including a motor capable of producing normal rotation and reverse rotation, for rocking the body supporting means by driving and producing rotation with the motor; and a control means for controlling rotation of the motor to rock the body supporting means; the relaxation device being characterized in that: the rocking driving means includes a speed reducer connected to the motor for outputting the drive force from the motor 20 at a reduced speed, and a conversion mechanism that converts both alternating normal and reverse rotation and single-direction rotation into a rocking movement of the body supporting means; a speed reducer connected to the motor for outputting the drive force from the motor 20 at a reduced speed, and a conversion mechanism that converts both alternating normal and reverse rotation and single-direction rotation into a rocking movement of the body supporting means; wherein the conversion mechanism includes a crank mechanism including a crank, a rod and links, wherein the crank has a basal end connected to an output shaft of the speed reducer in an integrally rotatable manner, and the crank has a distal end connected in a rotatable manner to a basal end of the rod, the control means controls the motor to produce rotation in a single direction when rocking the body supporting means at maximum amplitude. a crank mechanism including a crank, a rod and links, wherein the crank has a basal end connected to an output shaft of the speed reducer in an integrally rotatable manner, and the crank has a distal end connected in a rotatable manner to a basal end of the rod, the control means controls the motor to produce rotation in a single direction when rocking the body supporting means at maximum amplitude.
A production method of a semiconductor device, comprising the following method steps: - providing a semiconductor substrate; - forming a functional layer on a semiconductor surface of the semiconductor substrate; and - generating at least one doping area at the semiconductor surface by feeding a doping material from the functional layer into the semiconductor substrate, wherein the functional layer is formed in such a way that it passivates upon completion of the semiconductor device the semiconductor surface as a passivation layer, characterized in that the functional layer is made of aluminum oxide (AlO x), titanium oxide (TiOx), magnesium oxide (MgOx) or zinc oxide (ZnOx) and aluminum, titanium, magnesium or zinc of the compound serves correspondingly as doping material. - providing a semiconductor substrate; - forming a functional layer on a semiconductor surface of the semiconductor substrate; and - generating at least one doping area at the semiconductor surface by feeding a doping material from the functional layer into the semiconductor substrate, wherein the functional layer is formed in such a way that it passivates upon completion of the semiconductor device the semiconductor surface as a passivation layer, characterized in that the functional layer is made of aluminum oxide (AlO x), titanium oxide (TiOx), magnesium oxide (MgOx) or zinc oxide (ZnOx) and aluminum, titanium, magnesium or zinc of the compound serves correspondingly as doping material.
Apparatus, comprising an insulating body (2, 2', 2'') made from plastic, a cable receptacle for a cable being configured in the insulating body (2, 2', 2''), a conductor receptacle for a conductor bolt being arranged in a head section of the insulating body (2, 2'), the insulating body (2, 2', 2'') being of elastic configuration or comprising an elastomeric material or being manufactured from a material of this type, a plurality of supporting elements being received within the insulating body (2, 2', 2''), the supporting elements being manufactured from an electrically insulating material and being configured as rods or bars, characterized in that the supporting elements are arranged in a self-supporting manner at least in the head section and lie within the insulating body (2, 2') here and are embedded into the latter, the supporting elements ending with a free end in the insulating body (2, 2'), without emerging from the latter.
Stack-shaped III-V semiconductor component comprising - a stack with an upper side, a lower side, a side surface connecting the upper side and the lower side and a longitudinal axis extending through the upper side and the lower side, wherein - the stack has a p + region with an upper side, a lower side and a doping substance concentration of 5·10 18 - 5·10 20 N/cm 3, - the stack has an n - layer with an upper side, a lower side, a doping substance concentration of 10 12 - 10 17 N/cm 3 and a layer thickness of 10 - 300 μm, - the stack has an n + region with an upper side, a lower side and a doping substance concentration of at least 10 19 N/cm 3, - the p + region, the n - layer and the n + region are respectively of monolithic construction, each comprise a GaAs compound or each consist of a GaAs compound and so follow one another along the longitudinal axis of the stack that the n - layer lies between the p + region and the n + region, and - the n + region or the p + region is formed as a substrate layer, wherein - the stack has in the region of the side surface a first encircling step-shaped edge and a second encircling step-shaped edge, - the first edge is formed by the substrate layer, - the second edge is formed by the n - layer or by an intermediate layer arranged between the n - layer and the p + region, and - the first encircling edge and the second encircling edge each have a width (B1, B2) of at least 10 μm - so that the side surface of the III-V semiconductor component is formed to be step-shaped. - a stack with an upper side, a lower side, a side surface connecting the upper side and the lower side and a longitudinal axis extending through the upper side and the lower side, wherein - the stack has a p + region with an upper side, a lower side and a doping substance concentration of 5·10 18 - 5·10 20 N/cm 3, - the stack has an n - layer with an upper side, a lower side, a doping substance concentration of 10 12 - 10 17 N/cm 3 and a layer thickness of 10 - 300 μm, - the stack has an n + region with an upper side, a lower side and a doping substance concentration of at least 10 19 N/cm 3, - the p + region, the n - layer and the n + region are respectively of monolithic construction, each comprise a GaAs compound or each consist of a GaAs compound and so follow one another along the longitudinal axis of the stack that the n - layer lies between the p + region and the n + region, and - the n + region or the p + region is formed as a substrate layer, wherein - the stack has in the region of the side surface a first encircling step-shaped edge and a second encircling step-shaped edge, - the first edge is formed by the substrate layer, - the second edge is formed by the n - layer or by an intermediate layer arranged between the n - layer and the p + region, and - the first encircling edge and the second encircling edge each have a width (B1, B2) of at least 10 μm - so that the side surface of the III-V semiconductor component is formed to be step-shaped.