mhurhangee/ep-ind-claims huggingface dataset:
A catalyst composition for hydrogenation comprising,,, and shown below, wherein a mass ratio of the to the ( /) is in a range of 0.01 to 2.00,: a titanocene compound represented by following general formula, wherein R 5 and R 6 represent any group selected from the group consisting of hydrogen, a hydrocarbon group having 1 to 12 carbon atoms, an aryloxy group, an alkoxy group, a halogen group, and a carbonyl group, R 5 and R 6 may be the same or different; and R 1 and R 2 represent any group selected from the group consisting of hydrogen and a hydrocarbon group having 1 to 12 carbon atoms, and R 1 and R 2 may be the same or different; provided that R 1 and R 2 are not all hydrogen atoms or all a hydrocarbon group having 1 to 12 carbon atoms,: a compound containing one or more elements selected from the group consisting of elements Li, Na, K, Mg, Zn, Al, and Ca,: an unsaturated polymer having a fraction of an olefinic unsaturated double bond content of side chains based on a total olefinic unsaturated double bond content of 0.25 to 1.0, and: a polar compound, wherein the mass ratio of the to the ( /) is in a range of 0.3 to 8.0.: a titanocene compound represented by following general formula, wherein R 5 and R 6 represent any group selected from the group consisting of hydrogen, a hydrocarbon group having 1 to 12 carbon atoms, an aryloxy group, an alkoxy group, a halogen group, and a carbonyl group, R 5 and R 6 may be the same or different; and R 1 and R 2 represent any group selected from the group consisting of hydrogen and a hydrocarbon group having 1 to 12 carbon atoms, and R 1 and R 2 may be the same or different; provided that R 1 and R 2 are not all hydrogen atoms or all a hydrocarbon group having 1 to 12 carbon atoms,: a compound containing one or more elements selected from the group consisting of elements Li, Na, K, Mg, Zn, Al, and Ca,: an unsaturated polymer having a fraction of an olefinic unsaturated double bond content of side chains based on a total olefinic unsaturated double bond content of 0.25 to 1.0, and: a polar compound,
A mobile terminal, comprising: - a touchscreen display configured to display an object (413, 414); - an output unit configured to output a vibration when the object is selected by a pointer touching the object on the touchscreen display and dragged by the pointer along a display area of the touchscreen display; and - a control unit configured to - control a characteristic of the vibration according to a virtual friction force between a type of virtual material of the object and a type of virtual material of the display area, and - adjust a drag speed of the object according to the virtual friction force between the type of virtual material of the object and the type of virtual material of the display area such that the adjusted drag speed of the object is less than a speed of the pointer dragging the object if the virtual friction force is relatively high, and is relatively equal to the speed of the pointer if the virtual friction force is relatively low. - a touchscreen display configured to display an object (413, 414); - an output unit configured to output a vibration when the object is selected by a pointer touching the object on the touchscreen display and dragged by the pointer along a display area of the touchscreen display; and - a control unit configured to - control a characteristic of the vibration according to a virtual friction force between a type of virtual material of the object and a type of virtual material of the display area, and - adjust a drag speed of the object according to the virtual friction force between the type of virtual material of the object and the type of virtual material of the display area such that the adjusted drag speed of the object is less than a speed of the pointer dragging the object if the virtual friction force is relatively high, and is relatively equal to the speed of the pointer if the virtual friction force is relatively low.
Method for reducing a risk of droplet infection in an interior of a vehicle, wherein the method comprises the steps: (a) determining a risk of droplet infection emanating from at least one occupant of the vehicle, wherein the risk of droplet infection emanating from the at least one occupant of the vehicle is determined on the basis of an optical detection of the at least one occupant, wherein the optical detection is set up for detecting a respiratory protection of the at least one occupant, (b) selecting at least one vehicle-side measure for reducing the risk of droplet infection, wherein the at least one vehicle-side measure is selected depending on the determined risk of droplet infection, and (c) implementing the at least one selected vehicle-side measure for reducing the risk of droplet infection. (a) determining a risk of droplet infection emanating from at least one occupant of the vehicle, wherein the risk of droplet infection emanating from the at least one occupant of the vehicle is determined on the basis of an optical detection of the at least one occupant, wherein the optical detection is set up for detecting a respiratory protection of the at least one occupant, (b) selecting at least one vehicle-side measure for reducing the risk of droplet infection, wherein the at least one vehicle-side measure is selected depending on the determined risk of droplet infection, and (c) implementing the at least one selected vehicle-side measure for reducing the risk of droplet infection.
A component for a system of a gas turbine engine, comprising: a body portion formed from a polymer material; and at least one cooling passage formed within the body portion configured to allow coolant to pass therethrough to enable the component to operate while exposed to temperatures in excess of a predefined temperature range of the polymer material; and characterized by: an insert disposed within the at least one cooling passage and formed from a material different than the body portion. a body portion formed from a polymer material; and at least one cooling passage formed within the body portion configured to allow coolant to pass therethrough to enable the component to operate while exposed to temperatures in excess of a predefined temperature range of the polymer material; and characterized by: an insert disposed within the at least one cooling passage and formed from a material different than the body portion.
A cushioning element suitable for use in a liner assembly, the liner assembly including a mounting element including a side wall, an end wall and a recess (15 therein, the cushioning element when in use being located within the recess, the cushioning element including a cushion body of elastomeric material including a side section and opposed end sections (22, 23); characterised in that there is a plurality of cavities within the cushion body and extending from at least one of the end sections towards the other end section and a wear element operatively connected to the cushioning element.
A reverse charging device, comprising a processor, a Standard Downstream Port, SDP, and a first link on which a Charging Downstream Port, CDP, interface chip is arranged, wherein when it is detected that an On-The-Go, OTG adapter is plugged into the SDP, the processor is configured to be connected with the SDP through the first link, and the processor, the CDP interface chip and the SDP are configured to form a CDP to perform reverse charging through the CDP and the OTG adapter, the CDP having a current transmission capability higher than the SDP, characterized in that, the device further comprises a second link, wherein the processor is connected with the SDP through the second link to perform forward charging based on an established connection. wherein when it is detected that an On-The-Go, OTG adapter is plugged into the SDP, the processor is configured to be connected with the SDP through the first link, and the processor, the CDP interface chip and the SDP are configured to form a CDP to perform reverse charging through the CDP and the OTG adapter, the CDP having a current transmission capability higher than the SDP, characterized in that, the device further comprises a second link, wherein the processor is connected with the SDP through the second link to perform forward charging based on an established connection.
A radio white spot coverage method (300A, 300B) performed by a wireless user equipment, UE, device engaged in an adaptive bitrate, ABR, streaming session via which content is to be delivered to the wireless UE device, the method (300A, 300B) comprising: determining that the wireless UE device is in a radio white spot area; suspending the ABR streaming session at a particular segment of the content; commencing playback of alternative content locally cached at the wireless UE device; determining that the wireless UE device is exiting the radio white spot area; and resuming the ABR streaming session from a point adjacent to the particular segment where the ABR streaming session was suspended. determining that the wireless UE device is in a radio white spot area; suspending the ABR streaming session at a particular segment of the content; commencing playback of alternative content locally cached at the wireless UE device; determining that the wireless UE device is exiting the radio white spot area; and resuming the ABR streaming session from a point adjacent to the particular segment where the ABR streaming session was suspended.
A DC magnetic system, comprising a yoke (1, 30) and an armature (2, 20), the yoke (1, 30) comprises a U-shaped magnetic conductive member (11, 110, 310) and the armature (2, 20) moving up and down in a limited space within the U-shaped magnetic conductive member (11, 110, 310), the armature (2, 20) being of a laminated structure, characterized in that the U-shaped magnetic conductive member (11, 110, 310) is of a single-piece bent structure, and wherein the yoke (1, 30) further comprises a cover plate with a through hole, the armature (2, 20) passing through the through hole of the cover plate so as to be inserted into the yoke (1, 30).
Buffer substances for use in the treatment of wounds, wherein the treatment being a phase-specific wound treatment is exclusively carried out during the granulation phase and comprises suppression of fibrin generation and/or fibrin cross-linking, and wherein the buffer substances, after dissolution in demineralised water at 37°C, form a buffer solution having a pH between pH 3 and pH 7.
A composition for use in the treatment of diseases caused by increase in GM-CSF concentration, wherein the disease is selected from the group consisting of immune-mediated demyelinating disease, multiple sclerosis, chronic organ inflammation, and rheumatoid arthritis, the composition comprising (2S, 3S, 4R)-1-O-(α-D-galactosyl)-2-(N-tetracosanoylamino)-1,3,4-nonanetriol as an active ingredient; wherein the composition is used such that 0.01 mg or larger and 50 mg or smaller of (2S, 3S, 4R)-1-O-(α-D-galactosyl)-2-(N-tetracosanoylamino)-1,3,4-nonanetriol per dosage is orally administered to a human in a dose interval of once in 1 to 7 days.
Hydraulic unit for the supply of pressure medium to a hydraulic actuator of an extruder, which hydraulic unit comprises at least one tank for storing pressure medium and at least one hydraulic machine, which is fluidically connected to said tank, for acting upon the actuator with pressure medium, wherein the tank and the at least one hydraulic machine are connected in a load-bearing manner, characterized in that the tank has a main section from which extends a tapered suction section to which a housing connection, in particular suction connection, of the at least one hydraulic machine is fluidically connected.
Method for transmitting a data packet from a sensor to a control unit via a peripheral sensor interface, in particular a peripheral sensor interface according to Peripheral Sensor Interface 5, PSI5, in an operating mode of the sensor interface synchronized by the control unit, in which a plurality of sensors can be operated via the same interface since each sensor can be allocated its own time slot within a transmission period, wherein, in the method, only one sensor is connected to the control unit via the sensor interface in a secure synchronized operating mode, wherein the transmission period comprises a plurality of successive time slots, and a start of the transmission period is defined by a synchronization signal provided by the control unit, and wherein, in a transmitting step, in the secure operating mode of the sensor interface synchronized by the control unit, the data packet is transmitted from the sensor via the sensor interface in a time slot of the transmission period of the secure synchronized operating mode, and the data packet is transmitted from the sensor again within the transmission period in at least one further time slot (210, 212, 214) of the transmission period, wherein, in a receiving step, the data packet is received by the control unit via the peripheral sensor interface in the time slot, and the data packet is received by the control unit again in the at least one further time slot (210, 212, 214), and wherein, in a checking step, the data packet received in the time slot and the data packet received in the further time slot (210, 212, 214) are compared with one another.
A compound of one of the following formulas: and wherein G is H, or G is selected from -C R 0, -C -OR 0, -C(R G),-O-C R 0, and -C(R G) 2 -O-C -OR 0, where each R 0 is independently H or C 1 -C 4 alkyl, and each R G is H or C 1 -C 4 alkyl; n is 0, 1 or 2; each R 3 represents Me, OH, OMe, or halo; and Y represents wherein each R y is independently selected from F, Cl, Me, OMe, CF 3, OCF 3, and CN; and each q is independently 0, 1, or 2, or a pharmaceutically acceptable salt thereof. wherein G is H, or G is selected from -C R 0, -C -OR 0, -C(R G),-O-C R 0, and -C(R G) 2 -O-C -OR 0, where each R 0 is independently H or C 1 -C 4 alkyl, and each R G is H or C 1 -C 4 alkyl; n is 0, 1 or 2; each R 3 represents Me, OH, OMe, or halo; and Y represents wherein each R y is independently selected from F, Cl, Me, OMe, CF 3, OCF 3, and CN; and each q is independently 0, 1, or 2,
A method for recording conversation, the method comprising: capturing (1410, 1510) content using a camera (151, 152); receiving (1420, 1520) at least one voice signal using a directional microphone; distinguishing (1430, 1530) at least one person corresponding to the at least one voice signal by analyzing the frequency and strength of the at least one voice signal; converting (1440, 1540) the at least one voice signal into a text corresponding to the at least one voice signal; detecting (1444, 1545) a direction of the at least one voice signal by analyzing the at least one voice signal received from the directional microphone; and displaying (1450, 1550) the text in the captured content to correspond to the distinguished at least one person at a location determined according to the detected direction of the at least one voice signal. capturing (1410, 1510) content using a camera (151, 152); receiving (1420, 1520) at least one voice signal using a directional microphone; distinguishing (1430, 1530) at least one person corresponding to the at least one voice signal by analyzing the frequency and strength of the at least one voice signal; converting (1440, 1540) the at least one voice signal into a text corresponding to the at least one voice signal; detecting (1444, 1545) a direction of the at least one voice signal by analyzing the at least one voice signal received from the directional microphone; and displaying (1450, 1550) the text in the captured content to correspond to the distinguished at least one person at a location determined according to the detected direction of the at least one voice signal.
A method for monitoring at least one machine tool, featuring the steps: (a) real-time detection of time-dependent measurement data (M i) characterising a production process running on the machine tool, (b) provision of the measurement data (M i) with a time stamp which encodes a time (t j) at which a respective measurement data (M i) was detected, such that measurement results (M i (t j)) are obtained, (c) transmission of the measurement results (M i (t j)) by a non-real-time-capable data bus to an evaluation unit, (d) calculation of at least one command from the measurement results by means of the evaluation unit, (e) transmission of the at least one command via the data bus, (f) monitoring of the production process in real-time by means of a programme that contains the command, characterized by the subsequent steps (g) determination of a reaction time of the data bus by means of a machine tool monitoring device and (h) if the reaction time (τ) exceeds a pre-set reaction time threshold value (τ S), limitation of a processing speed value that encodes a speed at which a production programme is executed on the machine tool to a maximum processing speed value (A max). (a) real-time detection of time-dependent measurement data (M i) characterising a production process running on the machine tool, (b) provision of the measurement data (M i) with a time stamp which encodes a time (t j) at which a respective measurement data (M i) was detected, such that measurement results (M i (t j)) are obtained, (c) transmission of the measurement results (M i (t j)) by a non-real-time-capable data bus to an evaluation unit, (d) calculation of at least one command from the measurement results by means of the evaluation unit, (e) transmission of the at least one command via the data bus, (f) monitoring of the production process in real-time by means of a programme that contains the command, characterized by the subsequent steps (g) determination of a reaction time of the data bus by means of a machine tool monitoring device and (h) if the reaction time (τ) exceeds a pre-set reaction time threshold value (τ S), limitation of a processing speed value that encodes a speed at which a production programme is executed on the machine tool to a maximum processing speed value (A max).
A support for sheet material, comprising: a V-frame cradle including a first arm and a second arm, the second arm in communication with the first arm to form a receiving area to receive and support a roll of the sheet material between the first and second arms; and a drive roller for transporting the sheet material from the roll, wherein: the first arm and the second arm commonly share the drive roller; and the drive roller receives mechanical energy from a separate drive; sensors for tracking displacement of the first arm and the second arm; wherein the first arm and the second arm automatically resize the V-frame cradle responsive to the sensors sensing dynamics of the roll of the sheet material, such as those corresponding to dimensions of the roll of sheet material, to provide constant tension in the roll of sheet material by controlling a position of the roll of the sheet material. a V-frame cradle including a first arm and a second arm, the second arm in communication with the first arm to form a receiving area to receive and support a roll of the sheet material between the first and second arms; and a drive roller for transporting the sheet material from the roll, wherein: the first arm and the second arm commonly share the drive roller; and the drive roller receives mechanical energy from a separate drive; sensors for tracking displacement of the first arm and the second arm; wherein the first arm and the second arm automatically resize the V-frame cradle responsive to the sensors sensing dynamics of the roll of the sheet material, such as those corresponding to dimensions of the roll of sheet material, to provide constant tension in the roll of sheet material by controlling a position of the roll of the sheet material.
Method of assembly of a string of drilling elements for deepwater drilling; each drilling element comprises at least one axial through hole, through which drilling mud can at least flow in a first direction, and two connection portions for connecting it in series in said string; the method comprising the following steps: a) assembling a lower portion of the string; and being characterized by b) taking at least one first drilling element; c) assembling said at least one first drilling element with other drilling devices in order to create a first section of the string directed towards a bottom or bed, where a blowout preventer is located; d) repeating steps b)-c) until said lower portion arrives in the proximity of the blowout preventer or until said lower portion arrives in the proximity of the bottom or bed; e) beginning the assembly of second drilling elements while a drilling apparatus is carrying out a drilling cycle, for the purpose of creating at least a second section of the string; f) repeating step e) until the second section has reached an extension at least equal to a desired drilling depth; the method further comprising a step s) wherein at least one third drilling element is assembled, which comprises at least one obstruction element for preventing a backflow from being generated, against the direction of the drilling mud, in said string; said step s) is carried out after step a) and before step b). a) assembling a lower portion of the string; and being characterized by b) taking at least one first drilling element; c) assembling said at least one first drilling element with other drilling devices in order to create a first section of the string directed towards a bottom or bed, where a blowout preventer is located; d) repeating steps b)-c) until said lower portion arrives in the proximity of the blowout preventer or until said lower portion arrives in the proximity of the bottom or bed; e) beginning the assembly of second drilling elements while a drilling apparatus is carrying out a drilling cycle, for the purpose of creating at least a second section of the string; f) repeating step e) until the second section has reached an extension at least equal to a desired drilling depth;
A magnetic chuck (10, 100, 110, 130) that attracts and retains a workpiece by a magnetic force of a permanent magnet, characterized by a first cylinder and a second cylinder that are arranged in series with each other, wherein a first piston of the first cylinder includes the permanent magnet, a piston rod connected to the first piston is inserted into a second piston of the second cylinder, a stopper (90, 138) configured to abut against the second piston is fixed to the piston rod, and a position of the stopper relative to the piston rod is configured to be changed, wherein the first cylinder includes a first air chamber disposed on one side of the first piston and a second air chamber disposed on another side of the first piston, the second cylinder includes a third air chamber disposed on one side of the second piston, and a third port through which air is supplied to and exhausted from the third air chamber. a first cylinder and a second cylinder that are arranged in series with each other, wherein a first piston of the first cylinder includes the permanent magnet, a piston rod connected to the first piston is inserted into a second piston of the second cylinder, a stopper (90, 138) configured to abut against the second piston is fixed to the piston rod, and a position of the stopper relative to the piston rod is configured to be changed, wherein the first cylinder includes a first air chamber disposed on one side of the first piston and a second air chamber disposed on another side of the first piston, the second cylinder includes a third air chamber disposed on one side of the second piston, and a third port through which air is supplied to and exhausted from the third air chamber.