mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device (SPx,H1) comprising: a wiring substrate (2/20) including a base material layer, a plurality of first terminals formed on a first surface of the base material layer, and a first insulating layer covering the first surface of the base material layer; a semiconductor chip including a front surface, a back surface opposite to the front surface, and a plurality of bonding pads formed on the front surface, and mounted over the first insulating layer; and a second insulating layer arranged between the wiring substrate (2/20) and the semiconductor chip, and being in contact with each of the first insulating layer and the semiconductor chip, wherein each of the plurality of first terminals is exposed from a first opening formed in the first insulating layer, wherein each of the base material layer and the first insulating layer of the wiring substrate (2/20) is comprised of resin containing a plurality of filler particles and a glass fiber, wherein a linear thermal expansion coefficient of the first insulating layer is equal to or larger than a linear thermal expansion coefficient of the base material layer, and is equal to or smaller than a linear thermal expansion coefficient of the second insulating layer, and wherein the linear thermal expansion coefficient of the base material layer is smaller than the linear thermal expansion coefficient of the second insulating layer. a wiring substrate (2/20) including a base material layer, a plurality of first terminals formed on a first surface of the base material layer, and a first insulating layer covering the first surface of the base material layer; a semiconductor chip including a front surface, a back surface opposite to the front surface, and a plurality of bonding pads formed on the front surface, and mounted over the first insulating layer; and a second insulating layer arranged between the wiring substrate (2/20) and the semiconductor chip, and being in contact with each of the first insulating layer and the semiconductor chip, wherein each of the plurality of first terminals is exposed from a first opening formed in the first insulating layer, wherein each of the base material layer and the first insulating layer of the wiring substrate (2/20) is comprised of resin containing a plurality of filler particles and a glass fiber, wherein a linear thermal expansion coefficient of the first insulating layer is equal to or larger than a linear thermal expansion coefficient of the base material layer, and is equal to or smaller than a linear thermal expansion coefficient of the second insulating layer, and wherein the linear thermal expansion coefficient of the base material layer is smaller than the linear thermal expansion coefficient of the second insulating layer.
A transport vehicle for an unmanned aerial vehicle, a UAV, which comprises: a head, which is provided with a cockpit inside, the cockpit is provided with a control assembly, the control assembly is used for controlling a movement state of the transport vehicle; a carrying plate connected to the head; a container provided on the carrying plate; the container comprises at least a base plate and an opening; characterized in that, the base plate is provided with an overturning assembly, the overturning assembly is rotatably connected to the base plate, wherein the overturning assembly is used for driving the UAV to rotate from a first predetermined position around a side direction of the base plate until the UAV is arranged at a second predetermined position through the opening, whereby loading and unloading of the UAV on and from the transport vehicle through the overturning assembly is achieved. a head, which is provided with a cockpit inside, the cockpit is provided with a control assembly, the control assembly is used for controlling a movement state of the transport vehicle; a carrying plate connected to the head; a container provided on the carrying plate; the container comprises at least a base plate and an opening; characterized in that, the base plate is provided with an overturning assembly, the overturning assembly is rotatably connected to the base plate, wherein the overturning assembly is used for driving the UAV to rotate from a first predetermined position around a side direction of the base plate until the UAV is arranged at a second predetermined position through the opening, whereby loading and unloading of the UAV on and from the transport vehicle through the overturning assembly is achieved.
A stent (10, 40, 50) comprising a line-shaped body including a plurality of straight parts and a plurality of curved parts (18a, 18b), the line-shaped body extending in a helical form in a circumferential direction while reciprocating in an axial direction by the straight parts and the curved parts (18a, 18b) alternately continuing, wherein (i) the straight parts of the line-shaped body have a substantially constant thickness throughout the stent (10, 40, 50); and (ii) a certain number of the curved parts (18a, 18b) of the line-shaped body has a different thickness from others, (iii) wherein the curved parts (18a, 18b) include at least one of a thickened curved part and a thinned curved part relative to a largest number of basic-thick curved parts, (iv) wherein in a central portion of the stent (10, 40, 50), the straight parts have a roughly constant length dimension, characterized in that (v) while in opposite side portions of the stent (10, 40, 50), there is provided a long part where the straight part is elongated and longer than the straight parts in the central portion, and the curved part (18a, 18b) connected to the long part comprises the thickened curved part, (vi) wherein in the opposite side portions of the stent (10, 40, 50), there is provided a short part where the straight part is shortened and shorter than the straight parts in the central portion, and the curved part (18a, 18b) connected to the short part comprises the thinned curved part. (i) the straight parts of the line-shaped body have a substantially constant thickness throughout the stent (10, 40, 50); and (ii) a certain number of the curved parts (18a, 18b) of the line-shaped body has a different thickness from others, (iii) wherein the curved parts (18a, 18b) include at least one of a thickened curved part and a thinned curved part relative to a largest number of basic-thick curved parts, (iv) wherein in a central portion of the stent (10, 40, 50), the straight parts have a roughly constant length dimension, characterized in that (v) while in opposite side portions of the stent (10, 40, 50), there is provided a long part where the straight part is elongated and longer than the straight parts in the central portion, and the curved part (18a, 18b) connected to the long part comprises the thickened curved part, (vi) wherein in the opposite side portions of the stent (10, 40, 50), there is provided a short part where the straight part is shortened and shorter than the straight parts in the central portion, and the curved part (18a, 18b) connected to the short part comprises the thinned curved part.
An edged tool storage device, comprising: a pedestal; a support rod that extends in a substantially vertical direction from the pedestal; and a first edged tool cover (3; 3A; 3B; 3C) and a second edged tool cover (3; 3A; 3B; 3C) that are removably connected to the support rod and store edged tools, wherein each of the first edged tool cover (3; 3A; 3B; 3C) and the second edged tool cover (3; 3A; 3B; 3C) includes a holding part that is elastically fitted onto the support rod and thus holds the support rod, and is removably connected to the support rod by the holding part, the holding part of the first edged tool cover (3; 3A; 3B; 3C) and the holding part of the second edged tool cover (3; 3A; 3B; 3C) are different in height when connected to the support rod, and the holding part includes a surface contact part (32b; 32d) that is in surface contact with a placement surface when the edged tool cover (3; 3A; 3B; 3C) is placed so that the holding part is a fulcrum. a pedestal; a support rod that extends in a substantially vertical direction from the pedestal; and a first edged tool cover (3; 3A; 3B; 3C) and a second edged tool cover (3; 3A; 3B; 3C) that are removably connected to the support rod and store edged tools, wherein each of the first edged tool cover (3; 3A; 3B; 3C) and the second edged tool cover (3; 3A; 3B; 3C) includes a holding part that is elastically fitted onto the support rod and thus holds the support rod, and is removably connected to the support rod by the holding part, the holding part of the first edged tool cover (3; 3A; 3B; 3C) and the holding part of the second edged tool cover (3; 3A; 3B; 3C) are different in height when connected to the support rod, and the holding part includes a surface contact part (32b; 32d) that is in surface contact with a placement surface when the edged tool cover (3; 3A; 3B; 3C) is placed so that the holding part is a fulcrum.
A method for monitoring an object in a geographical area, comprising: obtaining, from a cloud computing device, service provisioning data for a pre-determined service of the object; receiving, from a first plurality of network nodes disposed about a first segment of the geographical area, a plurality of monitored data items, wherein the plurality of monitored data items are generated based on an Internet-of-things signal received by the first plurality of network nodes from a tag sensor disposed on the object; and processing, based on the service provisioning data, the plurality of monitored data items to provide the pre-determined service of the object across the first segment of the geographical area, wherein the Internet-of-things signal comprises a repeating pattern of superframes, each superframe comprising a plurality of frames, wherein the repeating pattern of superframes defines rules for data exchange in the form of frequency bands and time slots for wireless data communication between one of the first plurality of network nodes and the tag sensor. obtaining, from a cloud computing device, service provisioning data for a pre-determined service of the object; receiving, from a first plurality of network nodes disposed about a first segment of the geographical area, a plurality of monitored data items, wherein the plurality of monitored data items are generated based on an Internet-of-things signal received by the first plurality of network nodes from a tag sensor disposed on the object; and processing, based on the service provisioning data, the plurality of monitored data items to provide the pre-determined service of the object across the first segment of the geographical area, wherein the Internet-of-things signal comprises a repeating pattern of superframes, each superframe comprising a plurality of frames, wherein the repeating pattern of superframes defines rules for data exchange in the form of frequency bands and time slots for wireless data communication between one of the first plurality of network nodes and the tag sensor.
A weld training torch (100, 150) for performing a simulated welding operation, the training torch (100, 150) comprising: a torch body (102, 152) comprising a handle and a neck (104, 154); a proximity sensor (160, 224) coupled to the handle; a tip extending from a distal end of the neck (104, 154) of the torch body to simulate a welding wire, the tip coupled to the torch body (102, 152); and a vibration module (116, 162) within the torch body (102, 152) and mechanically coupled to the tip; wherein the proximity sensor (160, 224) is configured to detect a proximity between the tip and a workpiece; and wherein the vibration module (116, 162) configured to vibrate in response to the detection of a proximity between the tip and the workpiece during the simulated welding operation. a torch body (102, 152) comprising a handle and a neck (104, 154); a proximity sensor (160, 224) coupled to the handle; a tip extending from a distal end of the neck (104, 154) of the torch body to simulate a welding wire, the tip coupled to the torch body (102, 152); and a vibration module (116, 162) within the torch body (102, 152) and mechanically coupled to the tip; wherein the proximity sensor (160, 224) is configured to detect a proximity between the tip and a workpiece; and wherein the vibration module (116, 162) configured to vibrate in response to the detection of a proximity between the tip and the workpiece during the simulated welding operation.
A terminal device for connecting a heating apparatus, in particular a tubular heating apparatus for household appliances, with an electricity supply wherein the heating apparatus includes at least one electric resistance heating coil, comprising: - a conical mounting and reception section (20, 30; 120, 130) made of a material of good heat transfer and high electrical connectivity arranged for being electrically connected with the electric resistance heating coil by inserting the mounting and reception section inside the electric resistance heating coil, - a connector section arranged for being electrically connected on its one end side with an electrical power supply and on its other end side with the mounting and reception section (20, 30; 120, 130), and - a thermal fuse unit for detecting an excess temperature of the heating apparatus, which is in heat transfer contact with at least the mounting and reception section (20, 30; 120, 130) and which is connected in the electric supply circuit for supplying the electric resistance heating element of the heating apparatus with electricity, characterized in that the mounting and reception section (20, 30; 120, 130) comprises a cavity for receiving at least the thermal fuse unit, wherein the thermal fuse unit comprises at least one thermo-sensitive pellet element which is provided for melting and cutting-off the electricity supply of the electric resistance heating element of the heating apparatus when the temperature of the mounting and reception section (20, 30; 120, 130) exceeds a predetermined temperature, wherein the cavity comprises an end panel and the thermo-sensitive pellet element is in direct contact with end panel of cavity of reception section (30, 130). - a conical mounting and reception section (20, 30; 120, 130) made of a material of good heat transfer and high electrical connectivity arranged for being electrically connected with the electric resistance heating coil by inserting the mounting and reception section inside the electric resistance heating coil, - a connector section arranged for being electrically connected on its one end side with an electrical power supply and on its other end side with the mounting and reception section (20, 30; 120, 130), and - a thermal fuse unit for detecting an excess temperature of the heating apparatus, which is in heat transfer contact with at least the mounting and reception section (20, 30; 120, 130) and which is connected in the electric supply circuit for supplying the electric resistance heating element of the heating apparatus with electricity,
A meat analogue comprising, by weight of the total composition, unless indicated otherwise, a) non-animal protein b) a binding agent, preferably comprising at least one ungelatinized gel forming agent, c) a food grade acid in the form of an edible organic acid, such that the level of undissociated acid is from 0.015 to 0.5 wt%, preferably whereby said food grade acid comprises acetic acid, citric acid, lactic acid, malic acid and combinations thereof d) preferably 0.01 to 5 wt% of NaCl, more preferably 0.05 to 3 wt% of NaCl more preferably 0.1 to 2 wt% of NaCl, more preferably 0.3 to 1.7wt%, more preferably 0.5 to 1.7wt%, more preferably 1.1 to 1.5 wt% NaCl Whereby said meat analogue has a i) pH from 4.7 to 6.0 ii) water activity (Aw) from 0.96 to 1 iii) a moisture content of from 45 to 69 wt% Whereby the meat analogue contains no egg white protein. a) non-animal protein b) a binding agent, preferably comprising at least one ungelatinized gel forming agent, c) a food grade acid in the form of an edible organic acid, such that the level of undissociated acid is from 0.015 to 0.5 wt%, preferably whereby said food grade acid comprises acetic acid, citric acid, lactic acid, malic acid and combinations thereof d) preferably 0.01 to 5 wt% of NaCl, more preferably 0.05 to 3 wt% of NaCl more preferably 0.1 to 2 wt% of NaCl, more preferably 0.3 to 1.7wt%, more preferably 0.5 to 1.7wt%, more preferably 1.1 to 1.5 wt% NaCl Whereby said meat analogue has a i) pH from 4.7 to 6.0 ii) water activity (Aw) from 0.96 to 1 iii) a moisture content of from 45 to 69 wt% i) pH from 4.7 to 6.0 ii) water activity (Aw) from 0.96 to 1 iii) a moisture content of from 45 to 69 wt% Whereby the meat analogue contains no egg white protein.
Pressure accumulator having an accumulator housing in which a movable separating element separates a gas chamber filled with a working gas from a fluid chamber in a fluid-tight manner, wherein a monitoring device is provided which, in the event of a fault impairing the sealing effect of the separating element, provides a visually detectable indication and which has a viewing window through which an indicator can be observed, said indicator being in communication with the gas chamber and the optical properties of which detectably change on wetting with the fluid, characterised in that the indicator changing its optical properties is accommodated in a capsule, the capsule wall of which is permeable to passage of the fluid and which is arranged between the viewing window and the separating element in the accumulator housing.
A method for preparing a catalyst for hydrocarbon steam cracking comprising the steps of: dissolving a KMgPO 4 precursor in water to prepare an aqueous solution of the KMgPO 4 precursor; impregnating a carrier selected from alpha-alumina, silica, silica-alumina, zirconium oxide, calcium aluminate and zeolite with the aqueous solution of the KMgPO 4 precursor, and sintering the impregnated carrier at 1,000-1,400°C for 22-26 hours. dissolving a KMgPO 4 precursor in water to prepare an aqueous solution of the KMgPO 4 precursor; impregnating a carrier selected from alpha-alumina, silica, silica-alumina, zirconium oxide, calcium aluminate and zeolite with the aqueous solution of the KMgPO 4 precursor, and sintering the impregnated carrier at 1,000-1,400°C for 22-26 hours.
A method performed by a computer that is configured to execute an operating system, a media presentation program, a handler and a meter comprising: modifying the media presentation program to re-direct a function call made to a display function provided by the operating system to a replacement function provided by the handler; wherein the display function is to display text on a display; wherein the text is a parameter contained in the function call; and receiving, by the handler, the re-directed function call containing the text as parameter; comparing, by the handler or the meter, the text with a character string corresponding to a channel name, channel number, or TV program name to determine if the re-directed function call is an event of interest; if the re-directed function call is an event of interest, creating, by the meter, a log entry based on the text. modifying the media presentation program to re-direct a function call made to a display function provided by the operating system to a replacement function provided by the handler; wherein the display function is to display text on a display; wherein the text is a parameter contained in the function call; and receiving, by the handler, the re-directed function call containing the text as parameter; comparing, by the handler or the meter, the text with a character string corresponding to a channel name, channel number, or TV program name to determine if the re-directed function call is an event of interest; if the re-directed function call is an event of interest, creating, by the meter, a log entry based on the text.
A process for making a composite part having a shape and a thickness comprising a textured skin and a rigid or foam substrate layer comprising the steps of: A) applying an aqueous thermoplastic dispersion onto a first surface of a rigid or foam substrate forming a composite structure with a skin layer wherein the aqueous thermoplastic dispersion is derived from the extrusion melt blending of a) a thermoplastic composition in the presence of b) at least one dispersing agent, and c) water; B) providing a molding apparatus comprising a mold having a first mold half having a textured surface and a second mold half having a second surface opposite the first surface and being engageable with said first mold half such that when the mold halves are engaged a mold cavity there between is defined corresponding to the shape and the thickness of a part; C) heating the composite structure; D) placing the heated composite structure between the open mold halves in the molding apparatus such that the skin layer will be contacted by the textured surface of the first mold half; E) closing the mold halves and contacting the composite structure; F) forming a rigid or foam substrate composite part having a textured skin layer; H) cooling the composite part; I) opening the mold; and J) removing the composite part. A) applying an aqueous thermoplastic dispersion onto a first surface of a rigid or foam substrate forming a composite structure with a skin layer wherein the aqueous thermoplastic dispersion is derived from the extrusion melt blending of a) a thermoplastic composition in the presence of b) at least one dispersing agent, and c) water; a) a thermoplastic composition in the presence of b) at least one dispersing agent, and c) water; B) providing a molding apparatus comprising a mold having a first mold half having a textured surface and a second mold half having a second surface opposite the first surface and being engageable with said first mold half such that when the mold halves are engaged a mold cavity there between is defined corresponding to the shape and the thickness of a part; C) heating the composite structure; D) placing the heated composite structure between the open mold halves in the molding apparatus such that the skin layer will be contacted by the textured surface of the first mold half; E) closing the mold halves and contacting the composite structure; F) forming a rigid or foam substrate composite part having a textured skin layer; H) cooling the composite part; I) opening the mold; and J) removing the composite part.
An orthopaedic implant comprising: a substrate having an articulating surface; a nanotextured surface disposed upon the articulating surface of the substrate, wherein the nanotextured surface includes a plurality of bio-active sites; an alloyed case layer ballistically imbedded on to and below the nanotextured surface; and a conformal coating disposed upon the alloyed case layer, wherein the nanotextured surface, alloyed case layer, and the conformal coating are generated in the presence of a continuous vacuum. a substrate having an articulating surface; a nanotextured surface disposed upon the articulating surface of the substrate, wherein the nanotextured surface includes a plurality of bio-active sites; an alloyed case layer ballistically imbedded on to and below the nanotextured surface; and a conformal coating disposed upon the alloyed case layer, wherein the nanotextured surface, alloyed case layer, and the conformal coating are generated in the presence of a continuous vacuum.