mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic adhesive film comprising, a resin composition comprising: a thermoplastic olefin elastomer resin; an acid-modified polypropylene resin; a crystal nucleating agent; and a polypropylene resin, satisfying a weight ratio [ /] of the thermoplastic olefin elastomer resin and the polypropylene resin being from 100/0 to 10/90 (provided that + = 100), and containing the acid-modified polypropylene resin in an amount of from 20 to 500 parts by weight relative to 100 parts by weight of a total weight of and, wherein the resin composition has a viscosity increase initiation temperature T1 when being cooled from a molten state of 180°C at a strain of 1%, a shear rate of 100 s -1 and a rate of 3°C/min and a softening initiation temperature T2 when being pulled at a strain of 1% and a temperature rising rate of 10°C/min while applying oscillation having a frequency from 1 to 100 Hz, satisfying the following Equation: T 1 / T 2 ≥ 0.90 wherein T1 and T2 are determined according to the description, and wherein the crystal nucleating agent is an agent effective for polypropylene and selected from the group consisting of a dibenzylidene sorbitol derivative, a phosphate metal salt, a benzoic acid metal salt, a pimelic acid metal salt, a rosin metal salt, quinacridone, cyanine blue, talc, and calcium carbonate. a resin composition comprising: a thermoplastic olefin elastomer resin; an acid-modified polypropylene resin; a crystal nucleating agent; and a polypropylene resin, satisfying a weight ratio [ /] of the thermoplastic olefin elastomer resin and the polypropylene resin being from 100/0 to 10/90 (provided that + = 100), and containing the acid-modified polypropylene resin in an amount of from 20 to 500 parts by weight relative to 100 parts by weight of a total weight of and, a thermoplastic olefin elastomer resin; an acid-modified polypropylene resin; a crystal nucleating agent; and a polypropylene resin, satisfying a weight ratio [ /] of the thermoplastic olefin elastomer resin and the polypropylene resin being from 100/0 to 10/90 (provided that + = 100), and containing the acid-modified polypropylene resin in an amount of from 20 to 500 parts by weight relative to 100 parts by weight of a total weight of and, wherein the resin composition has a viscosity increase initiation temperature T1 when being cooled from a molten state of 180°C at a strain of 1%, a shear rate of 100 s -1 and a rate of 3°C/min and a softening initiation temperature T2 when being pulled at a strain of 1% and a temperature rising rate of 10°C/min while applying oscillation having a frequency from 1 to 100 Hz, satisfying the following Equation: T 1 / T 2 ≥ 0.90 wherein T1 and T2 are determined according to the description, and wherein the crystal nucleating agent is an agent effective for polypropylene and selected from the group consisting of a dibenzylidene sorbitol derivative, a phosphate metal salt, a benzoic acid metal salt, a pimelic acid metal salt, a rosin metal salt, quinacridone, cyanine blue, talc, and calcium carbonate.
Sliding bearing element, in particular a radial sliding bearing element or thrust washer, in particular for bearing the crankshaft or a connecting rod in internal combustion engines, comprising a metal protective layer, in particular made of steel, comprising a metal bearing layer made of a lead-free aluminium-based alloy containing magnesium and manganese, and comprising a running layer, wherein the aluminium-based alloy contains 0.5-6.0 wt.% magnesium, 0.05-2 wt.% manganese, if applicable one or more of the following alloy constituents: 0.5-7.5 wt.% zinc, 0.5-6 wt.% silicon, up to 5 wt.% copper, 0.05-0.5 wt.% iron, 0.05-1 wt.% chromium, 0.05-0.5 wt.% titanium, 0.05-0.5 wt.% zirconium, 0.05-0.5 wt.% vanadium, 0.1-3 wt.% nickel, 0.1-1 wt.% cobalt, 0.05-0.5 wt.% cerium, and impurity-related alloy constituents, wherein the latter do not exceed 1 wt.% in total, and balance aluminium, and wherein a total content of zinc, copper and nickel does not exceed 8 wt.% in total and a total content of all alloy constituents does not exceed 12 wt.% in total, characterised in that a surface region rich in aluminium oxide with a thickness of 0.5-5 μm is produced in the metal bearing layer by mechanically blasting an upper face of the metal bearing layer prior to application of the running layer and then applying the running layer to the blasted upper face of the metal bearing layer, and in that the running layer is an anti-friction coating having a polymer binder.
A linear array of light emitting semiconductor components for use in a digital printing apparatus, each light emitting semiconductor component comprising a driver and at least one light emitting device, said array comprising a plurality of data buses (D 0, D 1, D 2, D 3) respectively connecting to a first plurality of subsets of said light emitting semiconductor components, said first plurality of subsets forming a first partition of said light emitting semiconductor components; said array further comprising a plurality of auxiliary buses (A 0, A 1, A 2, A 3) respectively connecting to a second plurality of subsets of said light emitting semiconductor components, said second plurality of subsets forming a second partition of said light emitting semiconductor components; wherein said first partition and said second partition are chosen such that each one of said light emitting semiconductor components can be uniquely identified by the subset of the first partition and the subset of the second partition to which it belongs; wherein said plurality of data buses (D 0, D 1, D 2, D 3) is configured to supply instructions to said first plurality of subsets of said light emitting semiconductor components; and wherein each of said light emitting semiconductor components is configured to extract instructions on the basis of its membership of a particular subset according to said second partition; wherein said plurality of auxiliary buses (A 0, A 1, A 2, A 3) is adapted to signal an active state or an inactive state; characterized in that said plurality of data buses (D 0, D 1, D 2, D 3) is further configured to supply respective address allocation instructions to said light emitting semiconductor components in synchronization with the active state signal of the respective auxiliary bus to which said light emitting semiconductor components are connected; wherein said light emitting semiconductor components are adapted to retain an address allocated by said respective address allocation instructions; and wherein instructions subsequent to said address allocation instructions include an address and are transmitted independently of said active state signal, each of said light emitting semiconductor components being configured to extract instructions by comparing said included address to said retained address.
Cooking equipment comprising: an oven cavity; at least one energy source, operable to provide energy to food placed inside the oven cavity; a plurality of sensors, configured to provide respective measurement signals (STC, STWR, STWI, STE, STF1,..., STFN, SH), indicative of respective quantities relating to a cooking process for cooking food in the oven cavity; and a control device, having at least one cooking program stored therein and configured to drive the at least one energy source in accordance with the cooking program, based on the measurement signals (STC, STWR, STWI, STE, STF1,..., STFN, SH) from the sensors; a storage unit, which contains first data (14, 15) indicative of energy required to carry out the at least one cooking program; and a processing unit, configured to determine, for the cooking program, an expected energy consumption level (EECL) from the first data (14, 15) and an actual energy consumption level (AECL) and to detect the presence of a malfunction based on a comparison of the expected energy consumption level (EECL) and of the actual energy consumption level (AECL), characterized in that: the storage unit contains second data, representative of expected patterns for corresponding monitored data, that include at least a set of the measurement signals (STC, STWR, STWI, STE, STF1,..., STFN, SH); and the processing unit is configured to run, in response to detection of a malfunction, a procedure for locating detected malfunctions based on a deviation of the monitored data from the respective expected patterns. an oven cavity; at least one energy source, operable to provide energy to food placed inside the oven cavity; a plurality of sensors, configured to provide respective measurement signals (STC, STWR, STWI, STE, STF1,..., STFN, SH), indicative of respective quantities relating to a cooking process for cooking food in the oven cavity; and a control device, having at least one cooking program stored therein and configured to drive the at least one energy source in accordance with the cooking program, based on the measurement signals (STC, STWR, STWI, STE, STF1,..., STFN, SH) from the sensors; a storage unit, which contains first data (14, 15) indicative of energy required to carry out the at least one cooking program; and a processing unit, configured to determine, for the cooking program, an expected energy consumption level (EECL) from the first data (14, 15) and an actual energy consumption level (AECL) and to detect the presence of a malfunction based on a comparison of the expected energy consumption level (EECL) and of the actual energy consumption level (AECL), the storage unit contains second data, representative of expected patterns for corresponding monitored data, that include at least a set of the measurement signals (STC, STWR, STWI, STE, STF1,..., STFN, SH); and the processing unit is configured to run, in response to detection of a malfunction, a procedure for locating detected malfunctions based on a deviation of the monitored data from the respective expected patterns.
Body made of a ceramic material comprising zirconia, the body being an implant and comprising as an integral part thereof a surface region reaching from the surface of the body down to a predetermined depth, wherein the surface region is enriched with a magnesium component thereby forming a hydrophilic surface area, the magnesium component being integrated in the ceramic material of the surface region.
An optoelectronic device comprising: an active layer comprising organometal halide perovskite; and a hole transport layer formed by vacuum evaporation and configured to transport hole carriers, the HTL comprising a first sublayer comprising a hole transport material doped with an n-dopant and disposed adjacent to the active layer, a second sublayer comprising the HTM that is undoped and disposed adjacent to the first sublayer, and a third sublayer comprising the HTM doped with a p-dopant and disposed adjacent to the second sublayer. an active layer comprising organometal halide perovskite; and a hole transport layer formed by vacuum evaporation and configured to transport hole carriers, the HTL comprising a first sublayer comprising a hole transport material doped with an n-dopant and disposed adjacent to the active layer, a second sublayer comprising the HTM that is undoped and disposed adjacent to the first sublayer, and a third sublayer comprising the HTM doped with a p-dopant and disposed adjacent to the second sublayer.
A filtering element comprising: a. a cylindrical body, having an outer surface exposed to unfiltered material and an inner surface; b. a closed end; c. an open end through which filtered material passes; and d. a wireless electronic device (220, 470, 550) affixed to said filtering element, said electronic device (220, 470, 550) comprising an antenna adapted to receive an electromagnetic field generated by a powered loop antenna and convert it to alternating current; characterized by an unpowered electromagnetically resonant antenna (230, 480, 560) affixed to said filtering element in proximity to said electronic device (220, 470, 550) and positioned so as to enhance said electromagnetic field received by said electronic device (220, 470, 550), wherein the wireless electronic device (220, 470, 550) is disposed between the powered loop antenna and the unpowered electromagnetically resonant antenna (230, 480, 560). a. a cylindrical body, having an outer surface exposed to unfiltered material and an inner surface; b. a closed end; c. an open end through which filtered material passes; and d. a wireless electronic device (220, 470, 550) affixed to said filtering element, said electronic device (220, 470, 550) comprising an antenna adapted to receive an electromagnetic field generated by a powered loop antenna and convert it to alternating current; characterized by an unpowered electromagnetically resonant antenna (230, 480, 560) affixed to said filtering element in proximity to said electronic device (220, 470, 550) and positioned so as to enhance said electromagnetic field received by said electronic device (220, 470, 550), wherein the wireless electronic device (220, 470, 550) is disposed between the powered loop antenna and the unpowered electromagnetically resonant antenna (230, 480, 560).
A data acquisition method, applied to a tunnel detection vehicle, wherein the tunnel detection vehicle comprises a control apparatus and at least one group of imaging apparatuses; the at least one group of imaging apparatuses is electrically connected with the control apparatus; the method comprises: the control apparatus controls the at least one group of imaging apparatuses to move in a reciprocating mode along a preset trajectory; when a motion direction of the imaging apparatuses is opposite to a travelling direction of the tunnel detection vehicle, and a difference value between the magnitude of a motion speed of the imaging apparatus and the magnitude of a motion speed of the tunnel detection vehicle is within a preset range, the control apparatus controls the imaging apparatuses to acquire image data of an inner wall of a tunnel. the control apparatus controls the at least one group of imaging apparatuses to move in a reciprocating mode along a preset trajectory; when a motion direction of the imaging apparatuses is opposite to a travelling direction of the tunnel detection vehicle, and a difference value between the magnitude of a motion speed of the imaging apparatus and the magnitude of a motion speed of the tunnel detection vehicle is within a preset range, the control apparatus controls the imaging apparatuses to acquire image data of an inner wall of a tunnel.
A method (200; 400; 500) for a wireless communication system, the wireless communication using at least one multiple access scheme for a plurality of wireless users, the method comprising: observing (210; 410; 510) at least one radio link characteristic for at least one of the plurality of wireless users; and based on the at least one observed radio link characteristic, switching (220; 420; 520) between Frequency Division Multiple Access, FDMA, and Interleave Division Multiple Access, IDMA, as the multiple access scheme for the at least one wireless user. observing (210; 410; 510) at least one radio link characteristic for at least one of the plurality of wireless users; and based on the at least one observed radio link characteristic, switching (220; 420; 520) between Frequency Division Multiple Access, FDMA, and Interleave Division Multiple Access, IDMA, as the multiple access scheme for the at least one wireless user.
A digital image processing method of calculating new colour component values by interpolation in a digital image divided into pixels, wherein each pixel is identified by coordinates (x,y) and associated with at least a first and a second colour component value of different type, the method comprising: selecting a first pixel, defining a pixel window around the selected first pixel, identifying a set of pixels consisting of pixels within the window having a first colour component value within a range around the first colour component value of the selected first pixel, calculating a new second colour component value for the first pixel by interpolation using corresponding second colour component values of pixels in the set of pixels, and allocating the calculated new second colour component value to the selected first pixel. selecting a first pixel, defining a pixel window around the selected first pixel, identifying a set of pixels consisting of pixels within the window having a first colour component value within a range around the first colour component value of the selected first pixel, calculating a new second colour component value for the first pixel by interpolation using corresponding second colour component values of pixels in the set of pixels, and allocating the calculated new second colour component value to the selected first pixel.
A sample clearing device for clearing tested samples from a materials testing machine including: first and second engaging surfaces for engaging a testing sample, wherein the first and second engaging surfaces are respectively a first opposed wheel on a fixed axle and a second opposed wheel on a floating axle biased toward the fixed axle, wherein the floating axel has a first end and a second end, and wherein a nip is formed between the first and second opposed wheels; a driver for at least one of the first and second opposed wheels, thereby activating at least one of the first and second opposed wheels and transporting the testing sample; and characterised in that it further includes: a housing including an upper opening for receiving the testing sample, a lower opening through which the testing sample is ejected, and first and second side slots through which respective first and second ends of the floating axle extend, wherein the floating axle has a first end and a second end, the first end being biased by a first spring and the second end is biased by a second spring.
A moving bed heat exchanger, comprising a vessel including an upper portion having a feed opening, a lower portion having a floor with a floor surface including a discharge opening therein, and an intermediate portion disposed between said upper portion and said lower portion, said vessel being configured so as to thereby direct a gravity flow from said upper portion through said intermediate portion to said floor of said lower portion of said vessel of hot ash particles received in said vessel via said feed opening and to effect the collection of said hot ash particles on said floor of said lower portion of said vessel; a plurality of tubes disposed in said intermediate portion of said vessel and configured so as to thereby direct a flow of working fluid in a direction substantially orthogonal to the direction of the directed gravity flow of said hot ash particles through said intermediate portion of said vessel, such that heat from said hot ash particles is transferred to said working fluid to thereby cool said hot ash particles as the gravity flow of said hot ash particles is directed to said lower portion of said vessel; a discharge pipe extending through said floor surface with a discharge opening disposed in said floor surface, characterized by: a hood, arranged as a low pressure ash control valve including a labyrinth chamber formed below said floor surface and a plurality of air inlets configured to inject air upward into the hood to control the amount of said collected cooled hot ash particles that are discharged downward through said discharge opening). a hood, arranged as a low pressure ash control valve including a labyrinth chamber formed below said floor surface and a plurality of air inlets configured to inject air upward into the hood to control the amount of said collected cooled hot ash particles that are discharged downward through said discharge opening).
Horizontal transverse sealing station for a horizontal tubular bag machine (12a; 12b), for producing transverse sealing seams (14a; 14b) on at least one film tube (18a; 18b) transported in a continuous, at least substantially horizontal transport direction (16a; 16b), comprising a transverse sealing station base (20a; 20b), which is fixedly connected to the tubular bag machine (22a; 22b), comprising a transverse sealing unit (24a; 24b), and comprising at least one sealing jaw pair (28a; 28b), which is movably mounted on the transverse sealing unit (24a; 24b) and is formed by two sealing jaws (26a; 26b) and the sealing surfaces (30a; 30b) of which, during a sealing process, come closer together in a sealing movement (32a; 32b) having relative to the transverse sealing unit (24a; 24b) at least one movement component (34a; 34b) in the transport direction (16a; 16b), in order to seal material layers (36a; 36b) of the film tube (18a; 18b) between the sealing surfaces (30a; 30b), under the application of heat and/or pressure, and to move said material surfaces apart again at the end of the sealing process, characterized in that the transverse sealing unit (24a; 24b) is mounted drivably on the transverse sealing station base (20a; 20b) with a displacement movement (38a; 38b) at least substantially parallel to the transport direction (16a; 16b) and the horizontal transverse sealing station has a mass compensating unit comprising at least one drivably mounted compensating mass (44a; 44b), wherein the compensating mass (44a; 44b), in a compensation movement (46a; 46b) comprising at least one movement component (48a; 48b) parallel to the displacement movement (38a; 38b), is driven such that the inertial forces induced by the displacement movement (38a; 38b) and those induced by the compensation movement (46a; 46b) are at least partially eliminated.
An assembled energy dissipator with variable stiffness for lateral connection of shear walls, comprising: an energy-dissipating zone; a stiffness enhancing zone; end plates for connecting shear walls; and high-strength binding stay bolts; wherein the shear walls are connectable to the end plates via the high-strength binding stay bolts; characterised in that the stiffness enhancing zone is independent from the energy-dissipating zone and comprises a plurality of steel plates arranged in a same plane and buckling-restrained plates which are respectively arranged on two sides of adjacent steel plates and are connected to the said adjacent steel plates via bolts; a gap is provided between the adjacent steel plates; and the stiffness enhancing zone is provided with a deformation threshold control device. an energy-dissipating zone; a stiffness enhancing zone; end plates for connecting shear walls; and high-strength binding stay bolts; wherein the shear walls are connectable to the end plates via the high-strength binding stay bolts; characterised in that the stiffness enhancing zone is independent from the energy-dissipating zone and comprises a plurality of steel plates arranged in a same plane and buckling-restrained plates which are respectively arranged on two sides of adjacent steel plates and are connected to the said adjacent steel plates via bolts; a gap is provided between the adjacent steel plates; and the stiffness enhancing zone is provided with a deformation threshold control device.