mhurhangee/ep-ind-claims huggingface dataset:
An oral care implement comprising: a handle extending along a longitudinal axis (A-A); a head at the distal end of the handle; at least one tooth cleaning element extending from the head; the handle comprising: a first component constructed of a first hard plastic; and a second component constructed of a second hard plastic, the second component comprising a body portion and a plurality of strips extending from the body portion and forming a strap network that wraps around the first component; wherein the first hard plastic is substantially transparent and the second hard plastic is substantially opaque; characterized in that the plurality of strips define a first window through the first component from first and second opposing outer surfaces (111, 112) of the handle; and the plurality of strips define a second window through the third and fourth opposing outer surfaces (113, 114) of the handle. a handle extending along a longitudinal axis (A-A); a head at the distal end of the handle; at least one tooth cleaning element extending from the head; the handle comprising: a first component constructed of a first hard plastic; and a second component constructed of a second hard plastic, the second component comprising a body portion and a plurality of strips extending from the body portion and forming a strap network that wraps around the first component; a first component constructed of a first hard plastic; and a second component constructed of a second hard plastic, the second component comprising a body portion and a plurality of strips extending from the body portion and forming a strap network that wraps around the first component; wherein the first hard plastic is substantially transparent and the second hard plastic is substantially opaque; characterized in that the plurality of strips define a first window through the first component from first and second opposing outer surfaces (111, 112) of the handle; and the plurality of strips define a second window through the third and fourth opposing outer surfaces (113, 114) of the handle.
A method of diagnosis or prognosis of endometrial carcinoma, the method comprising determining the level of expression of PERM in an isolated fluid sample from the female genital tract.
Portable table, comprising a table top and a frame, wherein the frame comprises two front legs (2, 3) and two rear legs (4, 5), as well as two front arms (6, 7) and two rear arms (8, 9), wherein the front legs (2, 3) and the rear legs (4, 5) have in each case a first, free end (2a, 3a, 4a, 5a) which is directed toward a support, and wherein the front arms (6, 7) and rear arms (8, 9) have in each case a second end (6b, 7b, 8b, 9b) which is directed toward the table top, wherein the front legs (2, 3), by way of their second, upper end (2b, 3b) which is located opposite the first, lower free end (2a, 3a), and the front arms (6, 7), by way of their first, lower end (6a, 7a) which is located opposite the second, upper end (6b, 7b), are fastened on a first, front connecting element, and wherein the rear legs (4, 5), by way of their second, upper end (4b, 5b) which is located opposite the first, lower free end (4a, 5a) and the rear arms (8, 9), by way of their first, lower end (8a, 9a) which is located opposite the second, upper end (8b, 9b), are fastened on a second, rear connecting element, wherein the first, front connecting element is connected to the second, rear connecting element by means of at least one first connecting rod, characterized in that a first coupling element, which connects the front, left arm to a first longitudinal rod which is arranged parallel to the at least one first connecting rod, is arranged on the second, upper end of the front, left arm and in that a second coupling element, which connects the rear, left arm to the first longitudinal rod, is arranged on the second end of the rear, left arm, and in that a third coupling element, which connects the front, right arm to a second longitudinal rod which is arranged parallel to the at least one first connecting rod, is arranged on the second end of the front, right arm, and in that a fourth coupling element, which connects the rear, right arm to the second longitudinal rod, is arranged on the second end of the rear, right arm, and in that the table top comprises at least one device (65a, 65b, 66a, 66b) by means of which the table top is releasably fastenable on the frame.
A system for directing incident radiation from a source to a target, the system comprising: a reflector for reflecting the incident radiation, the reflector having an optical axis; an imager connected to the reflector, wherein the imager is connected to the non-reflective side of the mirror in alignment with an aperture; a tracking controller coupled to the imager; and one or more actuators connected to the reflector and tracking controller; wherein the tracking controller is configured to: i) receive image data from the imager; ii) detect both source and target projections based on the image data; and iii) actuate the reflector so its axis bisects the angular positions of the radiation source and target. a reflector for reflecting the incident radiation, the reflector having an optical axis; an imager connected to the reflector, wherein the imager is connected to the non-reflective side of the mirror in alignment with an aperture; a tracking controller coupled to the imager; and one or more actuators connected to the reflector and tracking controller; wherein the tracking controller is configured to: i) receive image data from the imager; ii) detect both source and target projections based on the image data; and iii) actuate the reflector so its axis bisects the angular positions of the radiation source and target. i) receive image data from the imager; ii) detect both source and target projections based on the image data; and iii) actuate the reflector so its axis bisects the angular positions of the radiation source and target.
An apparatus for adjusting flow speed of a fluid, comprising: i) an apparatus for measuring fluid speed including: - a channel (110, 210) having a passage formed therein for holding a fluid flowing therethrough; - a first light source (121, 221) and a second light source (122, 222) located in any one region of an upper part and a lower part of the channel; - a sensor (130, 230) installed in an opposite region of the region where the first light source (121, 221) and the second light source (122, 222) are located with respect to the channel (110, 210), the sensor (130, 230) configured to receive light emitted from the first light source and the second light source; and - a speed calculation unit (140, 240) configured to calculate a speed of the fluid by using a time point at which an intensity of light received at the sensor changes, ii) an adjustment unit connected to the channel (110, 210) and configured to adjust a flow speed of the fluid based on the calculated speed of the fluid, characterized in that the sensor (130, 230) is sized to receive light from both the first and the second light sources, and wherein the first and second light sources are adapted to emit light not parallel with each other, such that the size of the sensor is smaller than would be required in case of parallel beams. i) an apparatus for measuring fluid speed including: - a channel (110, 210) having a passage formed therein for holding a fluid flowing therethrough; - a first light source (121, 221) and a second light source (122, 222) located in any one region of an upper part and a lower part of the channel; - a sensor (130, 230) installed in an opposite region of the region where the first light source (121, 221) and the second light source (122, 222) are located with respect to the channel (110, 210), the sensor (130, 230) configured to receive light emitted from the first light source and the second light source; and - a speed calculation unit (140, 240) configured to calculate a speed of the fluid by using a time point at which an intensity of light received at the sensor changes, - a channel (110, 210) having a passage formed therein for holding a fluid flowing therethrough; - a first light source (121, 221) and a second light source (122, 222) located in any one region of an upper part and a lower part of the channel; - a sensor (130, 230) installed in an opposite region of the region where the first light source (121, 221) and the second light source (122, 222) are located with respect to the channel (110, 210), the sensor (130, 230) configured to receive light emitted from the first light source and the second light source; and - a speed calculation unit (140, 240) configured to calculate a speed of the fluid by using a time point at which an intensity of light received at the sensor changes, ii) an adjustment unit connected to the channel (110, 210) and configured to adjust a flow speed of the fluid based on the calculated speed of the fluid,
A method of controlling the operation of a brake system of a vehicle, the vehicle having a front, rear and two sides, the method comprising: receiving one or more electrical signals each indicative of a value of a respective vehicle-related parameter; detecting that the vehicle is traversing a side slope such that one side of the vehicle is uphill and the other side is downhill, based on the value(s) of one or more of the vehicle-related parameter(s); and automatically modifying the amount of brake torque being applied to at least certain of the wheels of the vehicle in response to the detection of the vehicle traversing a side slope by increasing the amount of brake torque being applied to one or more wheels on one side of the vehicle, and decreasing the amount of brake torque being applied to one or more wheels on the other side of the vehicle. receiving one or more electrical signals each indicative of a value of a respective vehicle-related parameter; detecting that the vehicle is traversing a side slope such that one side of the vehicle is uphill and the other side is downhill, based on the value(s) of one or more of the vehicle-related parameter(s); and automatically modifying the amount of brake torque being applied to at least certain of the wheels of the vehicle in response to the detection of the vehicle traversing a side slope by increasing the amount of brake torque being applied to one or more wheels on one side of the vehicle, and decreasing the amount of brake torque being applied to one or more wheels on the other side of the vehicle.
A condenser for an air conditioner, in particular for motor vehicles, comprising - a condensing portion and a super cooling part arranged over the condensing portion, - a tubular modulator partitioned by a partition into a lower portion joined to the condensing portion and an upper portion joined to the super cooling portion, - a standpipe between the lower and the upper portions of the modulator and - a drying agent receptacle below the partition in the lower portion of the modulator, - wherein the modulator is provided with a sealing plug and the partition together with the drying agent receptacle is removable from the modulator after releasing the sealing plug, characterized in that - a receptacle comprising the drying agent detachably is fixed to the standpipe, - wherein the fixing means is a hook fixed to the standpipe, and the receptacle is hung on the hook fixed to the standpipe. - a condensing portion and a super cooling part arranged over the condensing portion, - a tubular modulator partitioned by a partition into a lower portion joined to the condensing portion and an upper portion joined to the super cooling portion, - a standpipe between the lower and the upper portions of the modulator and - a drying agent receptacle below the partition in the lower portion of the modulator, - wherein the modulator is provided with a sealing plug and the partition together with the drying agent receptacle is removable from the modulator after releasing the sealing plug, characterized in that - a receptacle comprising the drying agent detachably is fixed to the standpipe, - wherein the fixing means is a hook fixed to the standpipe, and the receptacle is hung on the hook fixed to the standpipe.
A thermal energy recovery device comprising: a heater which heats a working medium by exchanging heat between a heat medium and the working medium; an expander into which the working medium flowed out from the heater flows; a power recovery machine connected to the expander; a condenser which condenses the working medium flowed into from the expander by heat exchange with a cooling medium; a circulating pump which sends the working medium condensed in the condenser to the heater; a circulating flow path which connects the heater, the expander, the condenser and the circulating pump and through which the working medium circulates; a bypass path which connects the region on the upstream side than the expander, in the circulating flow path, and the region on the downstream side than the expander; a bypass valve provided in the bypass path; a cooling medium pump which sends the cooling medium to the condenser; and a controller, characterized in that the controller executes a communication control that is a control for communicating the heater and the condenser via the bypass path by opening the bypass valve, in order to condense the working medium evaporated in the heater, when the stoppage of the circulating pump is detected. a heater which heats a working medium by exchanging heat between a heat medium and the working medium; an expander into which the working medium flowed out from the heater flows; a power recovery machine connected to the expander; a condenser which condenses the working medium flowed into from the expander by heat exchange with a cooling medium; a circulating pump which sends the working medium condensed in the condenser to the heater; a circulating flow path which connects the heater, the expander, the condenser and the circulating pump and through which the working medium circulates; a bypass path which connects the region on the upstream side than the expander, in the circulating flow path, and the region on the downstream side than the expander; a bypass valve provided in the bypass path; a cooling medium pump which sends the cooling medium to the condenser; and a controller, characterized in that the controller executes a communication control that is a control for communicating the heater and the condenser via the bypass path by opening the bypass valve, in order to condense the working medium evaporated in the heater, when the stoppage of the circulating pump is detected.
A compound of formula, a stereoisomer thereof or a pharmaceutically acceptable salt thereof, wherein, T is -O- or -N(R a)-; R a is H or C 1-3 alkyl; R 1 is triazolyl or tetrazolyl, wherein the triazolyl and tetrazolyl are optionally substituted with R b; R 2 is H or F; R 3 is H, F, Cl, Br, CN, C 1-6 alkyl, C 1-6 alkoxy or C 1-6 alkylamino; R 4 and R 5 are each independently H, F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl or C 1-3 alkoxy; R 6 is C 1-3 alkyl optionally substituted with 1, 2 or 3 R c; R b and R c are each independently F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl, C 1-3 alkoxy or C 3-4 cycloalkyl. T is -O- or -N(R a)-; R a is H or C 1-3 alkyl; R 1 is triazolyl or tetrazolyl, wherein the triazolyl and tetrazolyl are optionally substituted with R b; R 2 is H or F; R 3 is H, F, Cl, Br, CN, C 1-6 alkyl, C 1-6 alkoxy or C 1-6 alkylamino; R 4 and R 5 are each independently H, F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl or C 1-3 alkoxy; R 6 is C 1-3 alkyl optionally substituted with 1, 2 or 3 R c; R b and R c are each independently F, Cl, Br, I, C 1-3 alkyl, C 1-3 haloalkyl, C 1-3 alkoxy or C 3-4 cycloalkyl.
A spring unit (10A, 10B) comprising: plural zigzag springs (40A, 40B) shaped zigzag; a first sliding unit (20A, 20B) including first spring securing parts configured to secure a first end of the zigzag springs (40A, 40B); first spring accommodating parts (28A, 28B) configured to accommodate the zigzag springs (40A, 40B); first slide guiding parts formed on both sides of the first sliding unit (20A, 20B); a second sliding unit (30A, 30B) including second spring securing parts configured to secure a second end of the zigzag springs (40A, 40B); second spring accommodating parts (36A, 36B) configured to accommodate the zigzag springs (40A, 40B); second slide guiding parts formed on both sides of the second sliding unit (30A, 30B), wherein the first slide guiding parts and the second slide guiding parts are engaged so as to be able to mutually slide, and wherein the zigzag springs (40A, 40B) are held inside a space formed between the first spring accommodating parts (28A, 28B) and the second spring accommodating parts (36A, 36B) while the first slide guiding part and the second slide guiding part are engaged; characterized in that a holding mechanism (26, 33) is interposed between the zigzag springs (40A, 40B). plural zigzag springs (40A, 40B) shaped zigzag; a first sliding unit (20A, 20B) including first spring securing parts configured to secure a first end of the zigzag springs (40A, 40B); first spring accommodating parts (28A, 28B) configured to accommodate the zigzag springs (40A, 40B); first spring securing parts configured to secure a first end of the zigzag springs (40A, 40B); first spring accommodating parts (28A, 28B) configured to accommodate the zigzag springs (40A, 40B); first slide guiding parts formed on both sides of the first sliding unit (20A, 20B); a second sliding unit (30A, 30B) including second spring securing parts configured to secure a second end of the zigzag springs (40A, 40B); second spring accommodating parts (36A, 36B) configured to accommodate the zigzag springs (40A, 40B); a second sliding unit (30A, 30B) including second spring securing parts configured to secure a second end of the zigzag springs (40A, 40B); second spring accommodating parts (36A, 36B) configured to accommodate the zigzag springs (40A, 40B); second slide guiding parts formed on both sides of the second sliding unit (30A, 30B), wherein the first slide guiding parts and the second slide guiding parts are engaged so as to be able to mutually slide, and wherein the zigzag springs (40A, 40B) are held inside a space formed between the first spring accommodating parts (28A, 28B) and the second spring accommodating parts (36A, 36B) while the first slide guiding part and the second slide guiding part are engaged;
A method, comprising: generating a band excitation signal having finite and predefined amplitude and phase spectrum in at least a predetermined frequency band; simultaneously exciting a scanning probe microscope at a plurality of frequencies within the predetermined frequency band using the band excitation signal; obtaining data by measuring a response of the scanning probe microscope in the predetermined frequency band; and analysing the data obtained by the measured response and extracting at least one relevant dynamic parameter based on the measured response of the scanning probe microscope in a predefined range. generating a band excitation signal having finite and predefined amplitude and phase spectrum in at least a predetermined frequency band; simultaneously exciting a scanning probe microscope at a plurality of frequencies within the predetermined frequency band using the band excitation signal; obtaining data by measuring a response of the scanning probe microscope in the predetermined frequency band; and analysing the data obtained by the measured response and extracting at least one relevant dynamic parameter based on the measured response of the scanning probe microscope in a predefined range.
Oscillator device comprising - an oscillation circuit including oscillator output nodes (outa, outb) and arranged for generating and outputting an oscillation signal (Vout), the oscillation circuit comprising an active circuit including transistors (M1, M2) to ensure oscillation is maintained; - a voltage-to-current conversion replica circuit arranged for receiving said oscillation signal (Vout) and for outputting a current (Isub) with an amplitude proportional to said oscillation signal, the voltage-to-current conversion replica circuit replicating said active circuit and having replica transistors (M1', M2'); - biasing means arranged to generate a constant bias current (Iref); and - subtraction means for subtracting said current (Isub) proportional to said oscillation signal (Vout) from said bias current (Iref) to obtain a resulting current (Itail) which can be used for adapting said oscillation signal's amplitude; characterized in that the voltage-to-current conversion replica circuit is further arranged for providing the received oscillation signal (Vout) to the sources of replica transistors (M1', M2') and as the source voltage of the replica transistors changes with the change of voltage swing at the oscillator output nodes (outa, outb), the current (Isub) flowing through the replica transistors being varied to realize the voltage-to-current conversion. - an oscillation circuit including oscillator output nodes (outa, outb) and arranged for generating and outputting an oscillation signal (Vout), the oscillation circuit comprising an active circuit including transistors (M1, M2) to ensure oscillation is maintained; - a voltage-to-current conversion replica circuit arranged for receiving said oscillation signal (Vout) and for outputting a current (Isub) with an amplitude proportional to said oscillation signal, the voltage-to-current conversion replica circuit replicating said active circuit and having replica transistors (M1', M2'); - biasing means arranged to generate a constant bias current (Iref); and - subtraction means for subtracting said current (Isub) proportional to said oscillation signal (Vout) from said bias current (Iref) to obtain a resulting current (Itail) which can be used for adapting said oscillation signal's amplitude;
A method of completing a well, comprising: forming a wellbore, the wellbore comprising a bore extending into a subsurface formation; lining at least a lower portion of the wellbore with a string of production casing; placing a valve along the production casing, the valve creating a removable barrier to fluid flow within the bore; perforating the production casing along a first zone of interest within the subsurface formation, the first zone of interest residing at or above the valve; injecting a slurry into the wellbore, the slurry comprising a fracturing proppant; in response to a condition of screen-out along the first zone of interest during the injecting, pumping the slurry at a pressure sufficient to move the valve and overcome the barrier to fluid flow, thereby exposing ports along the production casing to the subsurface formation at or below the valve; and further pumping the slurry through the exposed ports, thereby remediating the condition of screen-out. forming a wellbore, the wellbore comprising a bore extending into a subsurface formation; lining at least a lower portion of the wellbore with a string of production casing; placing a valve along the production casing, the valve creating a removable barrier to fluid flow within the bore; perforating the production casing along a first zone of interest within the subsurface formation, the first zone of interest residing at or above the valve; injecting a slurry into the wellbore, the slurry comprising a fracturing proppant; in response to a condition of screen-out along the first zone of interest during the injecting, pumping the slurry at a pressure sufficient to move the valve and overcome the barrier to fluid flow, thereby exposing ports along the production casing to the subsurface formation at or below the valve; and further pumping the slurry through the exposed ports, thereby remediating the condition of screen-out.