mhurhangee/ep-ind-claims huggingface dataset:
An urban concentrated solar power for mounting on a roof top, comprising: (a) a heat receiver having a non-circular duct (107, 119) distinguishing an insulated area with an insulation layer (108, 120) on the outer surface of the non-circular duct and a non-insulated area, wherein the non-circular duct contains a heat transferring fluid, wherein the non-circular duct has an irradiated duct area versus a total duct area of 5% to 30%, wherein the total duct area is defined as a perimeter of the non-circular duct multiplied by a length of the non-circular duct; (b) a glass tube holding a vacuum, wherein the heat receiver is placed within the vacuum of the glass tube; (c) a vacuum pump in connection with the glass tube, wherein the vacuum pump draws or redraws the vacuum within the glass tube; (d) a coupling with an intermediate O-ring holding an end of the glass tube; (e) a heat shield (710, 720, 730) near the intermediate O-ring and circumferentially positioned around the heat receiver and within the glass tube; and (f) a parabolic trough to concentrate sunlight onto the non-insulated area of the non-circular duct of the heat receiver. (a) a heat receiver having a non-circular duct (107, 119) distinguishing an insulated area with an insulation layer (108, 120) on the outer surface of the non-circular duct and a non-insulated area, wherein the non-circular duct contains a heat transferring fluid, wherein the non-circular duct has an irradiated duct area versus a total duct area of 5% to 30%, wherein the total duct area is defined as a perimeter of the non-circular duct multiplied by a length of the non-circular duct; (b) a glass tube holding a vacuum, wherein the heat receiver is placed within the vacuum of the glass tube; (c) a vacuum pump in connection with the glass tube, wherein the vacuum pump draws or redraws the vacuum within the glass tube; (d) a coupling with an intermediate O-ring holding an end of the glass tube; (e) a heat shield (710, 720, 730) near the intermediate O-ring and circumferentially positioned around the heat receiver and within the glass tube; and (f) a parabolic trough to concentrate sunlight onto the non-insulated area of the non-circular duct of the heat receiver.
A system for detecting a step of a user, comprising: - a processing unit; - a sensor for detecting variation of electrostatic charge, coupled to the processing unit, provided with a first and a second electrode (8a, 8b) that can be coupled to a portion of the body of the user, and configured to detect, by means of said first and second electrod (8a, 8b), a variation of electrostatic charge of the user during execution of at least one step by the user and generate a charge-variation signal (S Q); - an accelerometer, coupled to the processing unit, configured to detect an acceleration as a consequence of said step of the user and generate an acceleration signal (S A), wherein the processing unit is configured to: a. acquire the charge-variation signal (S Q); b. acquire the acceleration signal (S A); c. detect, in the charge-variation signal (S Q), a first characteristic identifying said step of the user; d. detect, in the acceleration signal (S A), a second characteristic identifying said step of the user; and e. validate the execution of the step by the user only in case both the first and the second characteristics have been detected. - a processing unit; - a sensor for detecting variation of electrostatic charge, coupled to the processing unit, provided with a first and a second electrode (8a, 8b) that can be coupled to a portion of the body of the user, and configured to detect, by means of said first and second electrod (8a, 8b), a variation of electrostatic charge of the user during execution of at least one step by the user and generate a charge-variation signal (S Q); - an accelerometer, coupled to the processing unit, configured to detect an acceleration as a consequence of said step of the user and generate an acceleration signal (S A), wherein the processing unit is configured to: a. acquire the charge-variation signal (S Q); b. acquire the acceleration signal (S A); c. detect, in the charge-variation signal (S Q), a first characteristic identifying said step of the user; d. detect, in the acceleration signal (S A), a second characteristic identifying said step of the user; and e. validate the execution of the step by the user only in case both the first and the second characteristics have been detected. a. acquire the charge-variation signal (S Q); b. acquire the acceleration signal (S A); c. detect, in the charge-variation signal (S Q), a first characteristic identifying said step of the user; d. detect, in the acceleration signal (S A), a second characteristic identifying said step of the user; and e. validate the execution of the step by the user only in case both the first and the second characteristics have been detected.
A compound for use in a method of inhibiting genomic instability in a subject caused by a 1-25 cGy dose of computer tomography scan radiation, wherein the method comprises administering to the subject an effective dose of the compound either i) following, or ii) prior to and following exposure to the CT scan radiation, and wherein the compound is selected from the group consisting of amifostine, WR-1065, WR-638, WR-3689, WR-2822, WR-2529, WR-77913, WR-255591, WR-2823, WR-33278, WR-255709, WR-151326, and WR-151327.
A base station comprising: a transmitting section configured to transmit downlink data on a first component carrier and a second component carrier, wherein a first Uplink/Downlink, UL/DL, configuration pattern is set to the first component carrier and a second UL/DL configuration pattern which is different from the first configuration pattern is set to the second component carrier, and wherein each of the first UL/DL configuration pattern and the second UL/DL configuration pattern is one of a plurality of UL/DL configuration patterns for a frame including a plurality of uplink subframes and a plurality of downlink subframes; and a receiving section configured to receive a response signal for the each downlink subframe on the second component carrier using a specified uplink subframe in a frame on the first component carrier, wherein the plurality of UL/DL configuration patterns include two UL/DL configuration patterns whose periodicity of a switching point from downlink transmission to uplink transmission, DL/UL switching point, in the frame is different from each other, and wherein the specified uplink subframe is an uplink subframe common to a plurality of UL/DL configuration patterns with a same periodicity of the DL/UL switching point, wherein the specified uplink subframe is an uplink subframe located at an earliest timing which is more than four subframes after the each downlink subframe. a transmitting section configured to transmit downlink data on a first component carrier and a second component carrier, wherein a first Uplink/Downlink, UL/DL, configuration pattern is set to the first component carrier and a second UL/DL configuration pattern which is different from the first configuration pattern is set to the second component carrier, and wherein each of the first UL/DL configuration pattern and the second UL/DL configuration pattern is one of a plurality of UL/DL configuration patterns for a frame including a plurality of uplink subframes and a plurality of downlink subframes; and a receiving section configured to receive a response signal for the each downlink subframe on the second component carrier using a specified uplink subframe in a frame on the first component carrier, wherein the plurality of UL/DL configuration patterns include two UL/DL configuration patterns whose periodicity of a switching point from downlink transmission to uplink transmission, DL/UL switching point, in the frame is different from each other, and wherein the specified uplink subframe is an uplink subframe common to a plurality of UL/DL configuration patterns with a same periodicity of the DL/UL switching point, wherein the specified uplink subframe is an uplink subframe located at an earliest timing which is more than four subframes after the each downlink subframe.
An apparatus for the shape-matching and/or force-fitting fastening of a tank to a vehicle frame having at least one upper fastening plate couplable to an upper region of the tank and having at least one lower fastening plate thereunder couplable to the tank, wherein the fastening plates (4, 5) are configured to largely or exclusively conduct the weight force of the tank into a metal top boom plate and/or into a metal bottom boom plate of a longitudinal beam of the vehicle frame, characterized in that the upper fastening plate and/or the lower fastening plate are configured in at least a partially L shape, with the lower fastening plate being screwable to the metal bottom boom plate via a lower horizontal support region, and being couplable to the tank via a lower vertical region, and with the upper fastening plate being screwable to the metal top boom plate via an upper horizontal support region and being couplable to the tank via an upper vertical region, with the vertical region of the upper fastening plate having two passages for receiving a pin to couple the tank to the apparatus by means of the pin.
A rotary caulking device for manufacturing a bearing unit, comprising: a base configured to support a unit main body of the bearing unit; a pressing die configured to perform a caulking motion relative to the unit main body to which an inner ring (14, 14b) of the bearing unit is to be attached; and an adapter configured to move an outer ring of the bearing unit around an axis of the unit main body; characterized in that the adapter includes an adapter main body, and at least one block which is held in the adapter main body, and is disposed to be movable in an axial direction of the unit main body relative to the adapter main body.
A juicer, comprising a base, a motor assembly fixed in the base, a cutter disk connected to and driven by the motor assembly, a flange extending from an outer perimeter of the cutter disk, and a metal foil filter mesh extending from an end of the flange, characterized in that, the base has a slot in its side wall, the flange has a plurality of filter holes which act as outlets for pulp of fruits and vegetables being processed; a collar is configured under the flange; and an elevator assembly is configured for lifting up or lowering down the collar in accordance with user's operations, as a result a distance between the collar and the cutter disk is adjusted and an area of each filter hole that being covered or sealed by the collar is adjusted.
A method for manufacturing a belt assembly for an absorbent article, the method comprising: advancing belt assembly around a portion of a first guide roller, wherein the belt assembly comprises a first surface and a second surface; advancing the belt assembly around a portion of a second guide roller, wherein an unsupported portion of the belt assembly is suspended between the first guide roller and the second guide roller; imparting a first line of weakness into the first surface of the belt assembly using a first laser beam, wherein the first laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller; characterized by the steps of: imparting a second line of weakness into the second surface of the belt assembly using a second laser beam, wherein the second laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller; wherein the first line of weakness is coincident with the second line of weakness. advancing belt assembly around a portion of a first guide roller, wherein the belt assembly comprises a first surface and a second surface; advancing the belt assembly around a portion of a second guide roller, wherein an unsupported portion of the belt assembly is suspended between the first guide roller and the second guide roller; imparting a first line of weakness into the first surface of the belt assembly using a first laser beam, wherein the first laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller; characterized by the steps of: imparting a second line of weakness into the second surface of the belt assembly using a second laser beam, wherein the second laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller; wherein the first line of weakness is coincident with the second line of weakness. imparting a second line of weakness into the second surface of the belt assembly using a second laser beam, wherein the second laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller; wherein the first line of weakness is coincident with the second line of weakness.
An eductor assembly, comprising: a primary nozzle configured to discharge turbine exhaust gas therefrom; a cooler plenum having an inlet and an outlet; a surge plenum at least partially surrounding the cooler plenum and the nozzle, the surge plenum for conducting a surge flow; and a vent between the cooler plenum and the surge plenum through which air flows from the cooler plenum into the surge plenum when there is no surge flow; characterized in that the assembly further comprises: a tube coupled to the vent and extending into the surge plenum, the tube extending substantially perpendicularly from a wall separating the surge plenum and the cooler plenum, the tube comprising an obstruction coupled to an end of the tube and the obstruction extending into the cooler plenum for deflecting gas into the tube. a primary nozzle configured to discharge turbine exhaust gas therefrom; a cooler plenum having an inlet and an outlet; a surge plenum at least partially surrounding the cooler plenum and the nozzle, the surge plenum for conducting a surge flow; and a vent between the cooler plenum and the surge plenum through which air flows from the cooler plenum into the surge plenum when there is no surge flow;
A method for wrapping a load, comprising one or more products, with a film of wrapping material, said method comprising the following steps: a. preparing an apparatus for wrapping said load with a film of wrapping material provided with at least one device for capturing three-dimensional images, in a workplace wherein at least one said load to be wound is arranged; b. detecting, by means of said at least one device for capturing three-dimensional images, a cloud of points of a portion of said load, visible in the visual field of said at least one device for capturing three-dimensional images; c. making a projection of said cloud of points on a reference plane, substantially parallel to a lying plane of said load; d. calculating a path, based on said cloud of points projected onto said reference plane, around said visible portion of said load; e. moving said apparatus around said visible portion of said load according to said path and simultaneously, f. wrapping said film of wrapping material around said load; g. repeating, instant by instant, said steps (b.-f.) for successive portions of said load visible in said visual field of said at least one device for capturing three-dimensional images. a. preparing an apparatus for wrapping said load with a film of wrapping material provided with at least one device for capturing three-dimensional images, in a workplace wherein at least one said load to be wound is arranged; b. detecting, by means of said at least one device for capturing three-dimensional images, a cloud of points of a portion of said load, visible in the visual field of said at least one device for capturing three-dimensional images; c. making a projection of said cloud of points on a reference plane, substantially parallel to a lying plane of said load; d. calculating a path, based on said cloud of points projected onto said reference plane, around said visible portion of said load; e. moving said apparatus around said visible portion of said load according to said path and simultaneously, f. wrapping said film of wrapping material around said load; g. repeating, instant by instant, said steps (b.-f.) for successive portions of said load visible in said visual field of said at least one device for capturing three-dimensional images.
An isolated homogeneous population of cells derived from human umbilical cord tissue, for use in inducing angiogenesis, wherein said population of cells is obtainable by enzymatic digestion of human umbilical cord tissue free of blood with a matrix metalloprotease, neutral protease, and mucolytic enzyme, and wherein said population of cells is capable of self-renewal and expansion in culture, has the potential to differentiate into cells of other phenotypes, and wherein the cell population: a) produces each of CD10, CD13, CD44, CD73, CD90, HLA-A,B,C, and PDGFr-alpha, as detected by flow cytometry; and b) does not produce any of CD31, CD34, CD45, CD117, CD141and HLA-DR,DP,DQ, as detected by flow cytometry. a) produces each of CD10, CD13, CD44, CD73, CD90, HLA-A,B,C, and PDGFr-alpha, as detected by flow cytometry; and b) does not produce any of CD31, CD34, CD45, CD117, CD141and HLA-DR,DP,DQ, as detected by flow cytometry.
A withdrawal member for a filter for the vena cava, essentially consisting of a head and shape memory or shaped strands forming a tail, said strands being fixed to the head and located on the same side of the head, said withdrawal member comprising a rod having at its distal end a plurality of resilient arms (1,2, 3, 4, 5, 6) flaring from the rod, naturally spaced apart from each other and ending in hooks directed toward the inside so as to grip the cap of the filter upon tightening, characterized in that it comprises in proximity to the distal end of the rod a flexible region which is bent without stress.
A power train subsystem (100, 220, 230) for a motorised vehicle (200, 300, 500), comprising: a power train component to drive a drive assembly (250, 230,), a controller coupled to the power train component to control operation of the power train component, and a memory device (130, 226, 236, 326, 336, 536) comprising a boot code executable by the controller to define an operating environment, application software to provide the controller with commands to control the power train component, standard calibration parameters which configure the controller and power train component for a range of vehicular applications, and custom calibration parameters which configure the controller and power train component for a particular vehicular application of the range of vehicular applications, characterised in that the memory device is externally coupled to the controller so that it is not affixed to or otherwise integrated with the controller, the memory device being coupled to the controller by means of a connector (610, 710, 810) which permits the removal of the memory device from the subsystem for programming and/or replacement. a power train component to drive a drive assembly (250, 230,), a controller coupled to the power train component to control operation of the power train component, and a memory device (130, 226, 236, 326, 336, 536) comprising a boot code executable by the controller to define an operating environment, application software to provide the controller with commands to control the power train component, standard calibration parameters which configure the controller and power train component for a range of vehicular applications, and custom calibration parameters which configure the controller and power train component for a particular vehicular application of the range of vehicular applications, characterised in that the memory device is externally coupled to the controller so that it is not affixed to or otherwise integrated with the controller, the memory device being coupled to the controller by means of a connector (610, 710, 810) which permits the removal of the memory device from the subsystem for programming and/or replacement.
A lighting system comprising: a first lighting unit for providing artificial lighting to a first area within an indoor space; a second lighting unit for providing directed lighting to a smaller second area within the first area; a sensor arrangement comprising a first sensor for detecting a general lighting intensity and color in the first area, wherein the general lighting intensity and color represents the combined effect of artificial lighting provided by the first lighting unit and daylight entering the indoor space; and a controller for controlling the first lighting unit and the second lighting unit in dependence on a sensor arrangement output of the sensor arrangement, characterized in that the controller is adapted to control the first lighting unit and the second lighting unit in dependence on a predetermined relationship between the general lighting in the first area and the directed lighting in the second area to maintain a light intensity contrast between the general lighting and the directed lighting and to maintain a color difference between the general lighting and the directed lighting, wherein the predetermined relationship is a ratio between the general lighting intensity and an intensity of a light output from the second lighting unit and a mapping between a color characteristic of the general lighting and a color characteristic of the light output from the second lighting unit. a first lighting unit for providing artificial lighting to a first area within an indoor space; a second lighting unit for providing directed lighting to a smaller second area within the first area; a sensor arrangement comprising a first sensor for detecting a general lighting intensity and color in the first area, wherein the general lighting intensity and color represents the combined effect of artificial lighting provided by the first lighting unit and daylight entering the indoor space; and a controller for controlling the first lighting unit and the second lighting unit in dependence on a sensor arrangement output of the sensor arrangement, characterized in that the controller is adapted to control the first lighting unit and the second lighting unit in dependence on a predetermined relationship between the general lighting in the first area and the directed lighting in the second area to maintain a light intensity contrast between the general lighting and the directed lighting and to maintain a color difference between the general lighting and the directed lighting, wherein the predetermined relationship is a ratio between the general lighting intensity and an intensity of a light output from the second lighting unit and a mapping between a color characteristic of the general lighting and a color characteristic of the light output from the second lighting unit.
Method for producing a hybrid component, wherein a first component is coupled to a second component, wherein the first component and the second component are constructed from two materials which are different from each other and the materials substantially cannot be thermally joined, wherein a weld rivet is provided in the first component and the weld rivet is thermally joined to the second component, wherein the weld rivet is introduced into the first component and is riveted in the first component and subsequently the first component is brought into contact with the second component and the weld rivet is thermally joined to the second component, characterised in that the first component is at least partially adhesively bonded to the second component and in that the weld rivet is finally punched and riveted with the surface thereof in a substantially planar manner with respect to the component surface of the first component, wherein the first component has a wall thickness between 0.5 mm and 10 mm.