mhurhangee/ep-ind-claims huggingface dataset:
A handheld device comprising: a first body part comprising a first user interface element; a second body part comprising a second user interface element; a link mechanism configured to interconnect the first body part and the second body part such that said body parts are relatively movable by a user between a first configuration and a second configuration; the first body part and the second body part being stacked in a first order in the first configuration and in a second order opposite to the first order in the second configuration, characterized in that: the link mechanism is further configured to maintain the first body part and the second body part in parallel orientation throughout changing from the first configuration to the second configuration. a first body part comprising a first user interface element; a second body part comprising a second user interface element; a link mechanism configured to interconnect the first body part and the second body part such that said body parts are relatively movable by a user between a first configuration and a second configuration; the first body part and the second body part being stacked in a first order in the first configuration and in a second order opposite to the first order in the second configuration, characterized in that: the link mechanism is further configured to maintain the first body part and the second body part in parallel orientation throughout changing from the first configuration to the second configuration. the link mechanism is further configured to maintain the first body part and the second body part in parallel orientation throughout changing from the first configuration to the second configuration.
A foamed stretch-formed polyolefin resin body which has a polyolefin resin single-layer structure that is physically foamed into an expansion ratio of 1.01 to 2.0 times, wherein the surface roughness Ra (JIS-B-0601-1994) is not more than 10 μm in the region where the cells are distributed therein, wherein the polyolefin resin has an MFR (AST M-D-1238, 230°C) of 1 to 80 g/10 min; and wherein the polyolefin resin satisfies the following conditions and: a random polypropylene is contained in an amount of not less than 70% by weight; and in a melting curve obtained by the DSC measurement, by using the Diamond DSC manufactured by Perkin Elmer Co. as a measuring apparatus and measuring pellets of the polyolefin resin under the condition of elevating the temperature at a rate of 10 °C/min, a maximum strength peak temperature is lower than 150°C, and a difference (Ti - Tf) is not lower than 50°C between a melt start temperature (Ti) at a melt peak inclusive of a maximum strength peak and a melt end temperature (Tf). a random polypropylene is contained in an amount of not less than 70% by weight; and in a melting curve obtained by the DSC measurement, by using the Diamond DSC manufactured by Perkin Elmer Co. as a measuring apparatus and measuring pellets of the polyolefin resin under the condition of elevating the temperature at a rate of 10 °C/min, a maximum strength peak temperature is lower than 150°C, and a difference (Ti - Tf) is not lower than 50°C between a melt start temperature (Ti) at a melt peak inclusive of a maximum strength peak and a melt end temperature (Tf).
A rear structure for a saddle-ride type vehicle, comprising a rear fender preferably made of resin and configured to cover an upper side of a rear wheel of a saddle-ride type vehicle, wherein the rear fender includes a bottom portion configured to face the rear wheel; characterized in that the rear fender further includes; a first side portion extending upward integrally from each of left and right portions of the bottom portion; and a bending portion formed integrally with the bottom portion to be bendable at a hinge portion provided therebetween, and configured to be bent and stood upright from the bottom portion, and to be joined to the first side portion to form a second side portion, wherein a joint portion where the first side portion and the second side portion are joined together is formed by partially overlapping the first side portion and the second side portion in a lateral direction of the vehicle, and an upper portion of the second side portion is fastened and fixed together with the first side portion to a vehicle body frame by a fastening member.
A composition comprising - a fluorine-containing polymer which is a fluorine-containing elastomer, and - 0.1-50 parts by mass per 100 parts by mass of the fluorine-containing polymer of a silicon oxide of the formula SiO x wherein 0 < x < 2. - a fluorine-containing polymer which is a fluorine-containing elastomer, and - 0.1-50 parts by mass per 100 parts by mass of the fluorine-containing polymer of a silicon oxide of the formula SiO x wherein 0 < x < 2.
Agricultural machine for plant treatment as required, comprising - a plurality of treatment elements arranged laterally to an advancing direction, - at least one scanning device for scanning a surface region located in front of the treatment elements in the advancing direction, - an evaluation device for evaluating data acquired by the at least one scanning device, - a control device for actuating the treatment elements, preferably on the basis of the data acquired by the scanning device, wherein the evaluation device is configured to - subdivide the surface region scanned by the scanning device into sub-regions, - identify at least one sub-region in which actuation of at least one treatment element is required, characterized in that the evaluation device is configured to - determine, starting from a starting point, preferably for each sub-region, particularly preferably for each identified sub-region, a temporal and/or spatial distance from a point at which actuation of the at least one treatment element is to be carried out, - compare all defined points with an internal system time of the scanning device, the evaluation device and/or the control device. - a plurality of treatment elements arranged laterally to an advancing direction, - at least one scanning device for scanning a surface region located in front of the treatment elements in the advancing direction, - an evaluation device for evaluating data acquired by the at least one scanning device, - a control device for actuating the treatment elements, preferably on the basis of the data acquired by the scanning device, wherein the evaluation device is configured to - subdivide the surface region scanned by the scanning device into sub-regions, - identify at least one sub-region in which actuation of at least one treatment element is required, - determine, starting from a starting point, preferably for each sub-region, particularly preferably for each identified sub-region, a temporal and/or spatial distance from a point at which actuation of the at least one treatment element is to be carried out, - compare all defined points with an internal system time of the scanning device, the evaluation device and/or the control device.
A method for producing a microporous plastic film, the method comprising: kneading a diluent and a polyolefin resin with an extruder; discharging the polyolefin resin kneaded with the diluent from a die lip in a sheet shape; cooling and solidifying the sheet discharged from the die lip on a drum; reheating and drawing the solidified sheet with a plurality of rollers in a sheet conveying direction; cooling the sheet drawn in the sheet conveying direction; gripping both ends of the sheet with clips; introducing the sheet into a tenter; and washing the diluent out to prepare a uniaxially or biaxially oriented microporous plastic film, wherein the method further comprises pressing the sheet interposing between a nip roller having a surface coated with a rubber and a driving roller driven by a motor upstream from a roller at the most downstream side among the rollers, wherein number N of pairs of the driving roller and the nip roller satisfies the following formula: N > T / μ ⋅ P, where T: drawing tension required for drawing sheet in sheet conveying direction, μ: coefficient of friction between driving roller sheet, and P: nip pressure between driving roller and nip roller. kneading a diluent and a polyolefin resin with an extruder; discharging the polyolefin resin kneaded with the diluent from a die lip in a sheet shape; cooling and solidifying the sheet discharged from the die lip on a drum; reheating and drawing the solidified sheet with a plurality of rollers in a sheet conveying direction; cooling the sheet drawn in the sheet conveying direction; gripping both ends of the sheet with clips; introducing the sheet into a tenter; and washing the diluent out to prepare a uniaxially or biaxially oriented microporous plastic film, wherein the method further comprises pressing the sheet interposing between a nip roller having a surface coated with a rubber and a driving roller driven by a motor upstream from a roller at the most downstream side among the rollers, wherein number N of pairs of the driving roller and the nip roller satisfies the following formula: N > T / μ ⋅ P, where T: drawing tension required for drawing sheet in sheet conveying direction, μ: coefficient of friction between driving roller sheet, and P: nip pressure between driving roller and nip roller. T: drawing tension required for drawing sheet in sheet conveying direction, μ: coefficient of friction between driving roller sheet, and P: nip pressure between driving roller and nip roller.
An alcohol-based jelly composition for cell fixation comprising 30 to 60 parts by weight of an aqueous methanol solution, 0.1 to 0.2 parts by weight of EDTA, 0.01 to 0.05 parts by weight of cholic acid, 0.05 to 0.1 parts by weight of a 1 N aqueous acetic acid solution, and 5 to 20 parts by weight of one or more of gelatin or a photocurable protein.
A saddle riding vehicle, comprising: a unit swing engine that includes a crankcase and a cylinder portion having a cylinder axis extending from the crankcase in a vehicle fore-aft direction and that is swingably supported on a vehicle body frame; a radiator disposed beside the crankcase; an exhaust pipe connected with the cylinder portion; a catalyst unit disposed in the exhaust pipe; and an exhaust gas sensor (141, 341) disposed in the exhaust pipe, wherein, in a side view, the catalyst unit and the exhaust gas sensor (141, 341) are spaced apart from each other in the vehicle fore-aft direction with respect to the radiator, wherein the catalyst unit is disposed inferior to the cylinder portion at a position anterior to the crankcase, and wherein the exhaust pipe includes a downstream side exhaust pipe located downstream of the catalyst unit wherein the unit swing engine is swingably supported on the vehicle body frame via a linkage mechanism disposed superior to the unit swing engine, the exhaust gas sensor (141, 341) is disposed in the downstream side exhaust pipe, the crankcase has an oil filler port and a cap that closes the oil filler port, and the exhaust gas sensor (141, 341) is disposed inferior to the cap at a position posterior to the radiator. a unit swing engine that includes a crankcase and a cylinder portion having a cylinder axis extending from the crankcase in a vehicle fore-aft direction and that is swingably supported on a vehicle body frame; a radiator disposed beside the crankcase; an exhaust pipe connected with the cylinder portion; a catalyst unit disposed in the exhaust pipe; and an exhaust gas sensor (141, 341) disposed in the exhaust pipe, wherein, in a side view, the catalyst unit and the exhaust gas sensor (141, 341) are spaced apart from each other in the vehicle fore-aft direction with respect to the radiator, wherein the catalyst unit is disposed inferior to the cylinder portion at a position anterior to the crankcase, and wherein the exhaust pipe includes a downstream side exhaust pipe located downstream of the catalyst unit wherein the unit swing engine is swingably supported on the vehicle body frame via a linkage mechanism disposed superior to the unit swing engine, the exhaust gas sensor (141, 341) is disposed in the downstream side exhaust pipe, the crankcase has an oil filler port and a cap that closes the oil filler port, and the exhaust gas sensor (141, 341) is disposed inferior to the cap at a position posterior to the radiator.
Ceramic component which features a ceramic body as well as a surface resistant to hot gas which is provided with a poorly reactive mineral coating, characterised in that, the coating is based on spinel.
Crystals of a salt, or hydrate thereof, of a compound represented by formula: wherein the crystals are α crystals, β crystals or γ crystals, wherein the α crystals are crystals of a disodium salt trihydrate of the compound represented by formula for which 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.72±0.2, 10.10±0.2, 10.96±0.2, 11.98±0.2, 13.34±0.2, 15.02±0.2, 17.26±0.2, 20.26±0.2, 21.66±0.2, and 22.36±0.2, wherein the β and γ crystals are crystals of a disodium salt, or hydrate thereof, of the compound represented by formula, wherein in the case of β crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.82±0.2, 9.78±0.2, 11.18±0.2, 12.26±0.2, 12.86±0.2, 15.38±0.2, 16.34±0.2, 18.34±0.2, 19.68±0.2, and 22.54±0.2, and in the case of γ crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.80±0.2, 9.86±0.2, 12.12±0.2, 12.86±0.2, 15.04±0.2, 16.30±0.2, 18.28±0.2, 19.90±0.2, 20.52±0.2, and 22.58±0.2. wherein the crystals are α crystals, β crystals or γ crystals, wherein the α crystals are crystals of a disodium salt trihydrate of the compound represented by formula for which 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.72±0.2, 10.10±0.2, 10.96±0.2, 11.98±0.2, 13.34±0.2, 15.02±0.2, 17.26±0.2, 20.26±0.2, 21.66±0.2, and 22.36±0.2, wherein the β and γ crystals are crystals of a disodium salt, or hydrate thereof, of the compound represented by formula, wherein in the case of β crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.82±0.2, 9.78±0.2, 11.18±0.2, 12.26±0.2, 12.86±0.2, 15.38±0.2, 16.34±0.2, 18.34±0.2, 19.68±0.2, and 22.54±0.2, and in the case of γ crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.80±0.2, 9.86±0.2, 12.12±0.2, 12.86±0.2, 15.04±0.2, 16.30±0.2, 18.28±0.2, 19.90±0.2, 20.52±0.2, and 22.58±0.2.
A method to detect the presence or absence of an MREJ type xx methicillin-resistant Staphylococcus aureus (MRSA) strain characterized by SEQ ID NO: 42 comprising: contacting a sample to be analyzed for the presence or absence of said MREJ type xx MRSA strain characterized by SEQ ID NO: 42 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 42 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 42; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xx MRSA strain; and detecting the absence or presence of said amplicon. contacting a sample to be analyzed for the presence or absence of said MREJ type xx MRSA strain characterized by SEQ ID NO: 42 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 42 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 42; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xx MRSA strain; and detecting the absence or presence of said amplicon.
A safety device for monitoring at least one machine, the safety device comprising at least one sensor for generating sensor data relating to the machine and a processing unit (16, 22) for the sensor data, which is connected at least indirectly to the sensor and the machine and is configured as a runtime environment with at least one computing node and for running a plurality of logic units on the at least one computing node, at least one logic unit being configured as a safety function unit for safety-oriented evaluation of the sensor data and at least one logic unit being configured as a diagnostic unit for monitoring the at least one safety function unit, characterized in that the at least one safety function unit is configured to transmit status messages and execution messages to the diagnostic unit, wherein status messages provide information about a status of the at least one safety function unit and thus about its operational readiness and possible restrictions or errors, and wherein an execution message relates to the execution of a safety function or a service which the at least one safety function unit executes, from which an execution sequence of the executed safety functions or services is generated, in that the diagnostic unit is configured to detect a safety-relevant malfunction of the safety device in a status monitoring using statuses from the status messages and in an execution monitoring using the execution sequence generated from the execution messages, and in that the runtime environment comprises a message system with two message channels, via which the at least one safety function unit transmits status messages and execution messages in parallel to the diagnostic unit.
A portable data carrier, in particular a chip card, having: - a data carrier body and - at least regionally a thermochromic ink layer in the data carrier body that is arranged so as to be visible for a viewer of the data carrier, wherein by the action of a thermal energy change on the ink layer a color change of the thermochromic ink layer is caused, characterized in that a material that influences the color change is incorporated in the data carrier body below the thermochromic ink layer, wherein the influencing material is a heat sink material, in particular a graphite material. - a data carrier body and - at least regionally a thermochromic ink layer in the data carrier body that is arranged so as to be visible for a viewer of the data carrier, wherein by the action of a thermal energy change on the ink layer a color change of the thermochromic ink layer is caused, characterized in that a material that influences the color change is incorporated in the data carrier body below the thermochromic ink layer, wherein the influencing material is a heat sink material, in particular a graphite material.
A vehicle control apparatus configured to control a vehicle such that the vehicle runs along a running lane within a steering control range and a vehicle speed control range, the steering control range and the vehicle speed control range being previously set, the vehicle control apparatus characterized by comprising: a running state recognition unit configured to recognize a running state of the vehicle; a lateral position recognition unit configured to recognize a lateral position of the vehicle relative to the running lane and an orientation of the vehicle relative to the running lane; a departure margin time computation unit configured to compute a departure margin time based on the running state of the vehicle, the lateral position of the vehicle relative to the running lane and the orientation of the vehicle relative to the running lane, the departure margin time being a time until the vehicle departs from the running lane within the steering control range and the vehicle speed control range; a hand-release duration time measurement unit configured to measure a hand-release duration time, the hand-release duration time being a duration time of a hand-release state of a driver of the vehicle; a driving return time estimation unit configured to estimate a driving return time based on the hand-release duration time, the driving return time being a time until the driver in the hand-release state returns to driving operation; and a control unit configured to output an alarm to the driver in a case where a difference resulting from subtracting the driving return time from the departure margin time is less than or equal to a first threshold. a running state recognition unit configured to recognize a running state of the vehicle; a lateral position recognition unit configured to recognize a lateral position of the vehicle relative to the running lane and an orientation of the vehicle relative to the running lane; a departure margin time computation unit configured to compute a departure margin time based on the running state of the vehicle, the lateral position of the vehicle relative to the running lane and the orientation of the vehicle relative to the running lane, the departure margin time being a time until the vehicle departs from the running lane within the steering control range and the vehicle speed control range; a hand-release duration time measurement unit configured to measure a hand-release duration time, the hand-release duration time being a duration time of a hand-release state of a driver of the vehicle; a driving return time estimation unit configured to estimate a driving return time based on the hand-release duration time, the driving return time being a time until the driver in the hand-release state returns to driving operation; and a control unit configured to output an alarm to the driver in a case where a difference resulting from subtracting the driving return time from the departure margin time is less than or equal to a first threshold.
Decoding apparatus for decoding a codeword information for a transport format combination indicator, which decoding apparatus comprises a codeword receiving unit (2, 6) and a codeword decision unit, wherein said codeword receiving unit is adapted to receive a first codeword information and to send said first codeword information to said codeword decision unit, and adapted to receive at least a second codeword information and to send said second codeword information to said codeword decision unit, wherein said codeword decision unit is adapted to decide and output a first codeword decision on the basis of said first codeword information received from said receiving unit, and is adapted to decide and output a second codeword decision on the basis of said second codeword information received subsequent to said first codeword information by said receiving unit and on the basis of said first codeword information, and which decoding apparatus further comprises a memory unit for storing a codeword list, wherein said codeword list comprises a list of allowable codewords, wherein in case that a new transmission time interval begins for all transmission channels, said codeword list is reset to a list of available codewords, and wherein in case that a new transmission time interval begins for only a part of said transmission channels, said codeword list comprising a list of allowable codewords for the second codeword decision is reduced on the basis of at least the first codeword information.
Suspendable resistance spot welding gun, comprising a bearing structure adapted to be connected to support and/or articulation means of the gun, a first electrode holder arm stationary mounted with respect to the bearing structure by bracket means, and a second electrode holder arm movable with respect to the first arm, the movement of the second arm being controlled by a linear actuator the body of which is associated with the bearing structure, both the electrode holder arms (36, 50) being provided with respective welding electrodes (38, 52) which are movable relative to each other as a result of the movement of second arm, and being powered by an electric current delivered by a transformer unit associated with the bearing structure, the bearing structure including a support member (16; 16a; 16b) generally interposed between the linear actuator and the transformer unit, on the one side, and the electrode holder arms (36, 50), on the other side, characterized in that said bracket means are rigidly connected to an end portion of the body of the linear actuator through the support member (16; 16a; 16b), so that the support member (16; 16a; 16b) constitutes a single body both with the bracket means and with the body of the linear actuator.