mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for dynamic control of running trim, list and/or yaw of a boat, said arrangement having a housing member, an interceptor member, an actuating means, a drive unit operated by a power supply means, and a guiding arrangement, said guiding arrangement being arranged to guide said interceptor member between a first position and a second end position, said actuating means being arranged to displace said interceptor member in a movement between said first and second positions in relation to said housing member by being driven by said drive unit, and said housing member comprising a front plate and a rear plate enclosing said interceptor member in said first position and partially enclosing said interceptor member in said second position, wherein said guiding arrangement has a first guiding member and a second guiding member which are arranged to interact with each other to provide a parallel movement of said interceptor member in relation to said housing member, said first guiding member being a torque transferring, rotatable element having a base body arranged to extend transverse to the direction of displacement of said interceptor member and having at least two fixedly attached toothed wheels, said second guiding member comprising at least two toothed guiding surfaces fixedly arranged to said interceptor member interacting with said toothed wheels, wherein said first guiding member is movably arranged in between one plate (9a, 9b) of said housing member and said second guiding member, to follow the movement of said interceptor member, characterized in that the base body comprises an elongated torque transmitting rod being arranged with a periphery, at least partly, having a diameter that is substantially the same as the effective diameter of said toothed wheels, arranged to act as a load transferring roll between said interceptor member and said housing.
A method for producing tumor cells by transferring a combination of cancer-associated genes into immortalized primate small airway epithelial cells, wherein: - the immortalized primate small airway epithelilal cells are produced by subjecting normal primate small airway epithelial cells to following treatments to: forced expression of telomere reverse transcriptase gene; forced expression of cyclin-dependent kinase 4 gene; and induction of p53 loss of function, and - the combination of cancer-associated genes is: (a) c-Myc gene and v-Src gene, (b) c-Myc gene, KRAS mutated gene and BCL2 gene, (c) KRAS mutated gene and Cyclin D1 gene, (d) KRAS mutated gene, Cyclin D1 gene and TP63 gene, (e) KRAS mutated gene and PIK3CA mutated gene, (f) KRAS mutated gene and LKB1 mutated gene, or (g) EGFR mutated gene and Cyclin D1 gene. - the immortalized primate small airway epithelilal cells are produced by subjecting normal primate small airway epithelial cells to following treatments to: forced expression of telomere reverse transcriptase gene; forced expression of cyclin-dependent kinase 4 gene; and induction of p53 loss of function, and forced expression of telomere reverse transcriptase gene; forced expression of cyclin-dependent kinase 4 gene; and induction of p53 loss of function, and - the combination of cancer-associated genes is: (a) c-Myc gene and v-Src gene, (b) c-Myc gene, KRAS mutated gene and BCL2 gene, (c) KRAS mutated gene and Cyclin D1 gene, (d) KRAS mutated gene, Cyclin D1 gene and TP63 gene, (e) KRAS mutated gene and PIK3CA mutated gene, (f) KRAS mutated gene and LKB1 mutated gene, or (g) EGFR mutated gene and Cyclin D1 gene. (a) c-Myc gene and v-Src gene, (b) c-Myc gene, KRAS mutated gene and BCL2 gene, (c) KRAS mutated gene and Cyclin D1 gene, (d) KRAS mutated gene, Cyclin D1 gene and TP63 gene, (e) KRAS mutated gene and PIK3CA mutated gene, (f) KRAS mutated gene and LKB1 mutated gene, or (g) EGFR mutated gene and Cyclin D1 gene.
A spring structure, comprising: a support body, a first support rod, a second support rod, a first spring, a second spring, a first mounting member used for connecting to an upper shell of a slide phone, and a second mounting member used for connecting to a lower shell of the slide phone, wherein an installation hole running through the support body is disposed on the support body; one end of the first support rod is connected to the first mounting member and the other end is inserted in the installation hole of the support body, the first support rod being movable along the installation hole, and the first support rod is sleeved with the first spring; and one end of the second support rod is connected to the second mounting member and the other end is inserted in the installation hole of the support body, the second support rod being movable along the installation hole, and the second support rod is sleeved with the second spring, wherein the support body comprises a first support body and a second support body, and installation holes on the first support body and the second support body are disposed in a one to one corresponding manner; the first support rod penetrates into the installation hole of the first support body and then into the installation hole of the second support body; the first spring is sleeved on the first support rod and located between the first mounting member and the first support body; the second support rod penetrates into the installation hole of the second support body and then into the installation hole of the first support body; the second spring is sleeved on the second support rod and located between the second mounting member and the second support body; and at least two third springs are disposed between the first support body and the second support body; the third springs are sleeved on the first support rod or the second support rod, and are symmetrically disposed with respect to a longitudinal center line of the whole first support rod and second support rod.
Device for measuring a rotor parameter or a plurality of rotor parameters of an electric motor, wherein the device comprises: incremental value indicating means non-rotatably connected to a rotor or stator and comprising increment marks, an incremental value sensor disposed opposite to the incremental value indicating means and disposed on the stator in case the incremental value indicating means is non-rotatably connected to the rotor and disposed on the rotor in case the incremental value indicating means is non-rotatably connected to the stator, a timer adapted to be reset and restarted subsequent to each passage of an increment mark past the incremental value sensor, and an evaluating unit adapted to determine, depending on a value of the timer, the rotor parameter for an intermediate rotational position of the rotor which is between a first rotational position of the rotor at a first instant of a passage of a first increment mark (12.1) and a second rotational position of the rotor at a second instant of a passage of a second increment mark (12.2) adjacent to the first increment mark (12.1), characterized by absolute value indicating means comprising an encoder contour and a distance sensor disposed opposite to the absolute value indicating means and adapted to measure a distance to the encoder contour, wherein the encoder contour corresponds to a number of pole pairs of an electric motor. incremental value indicating means non-rotatably connected to a rotor or stator and comprising increment marks, an incremental value sensor disposed opposite to the incremental value indicating means and disposed on the stator in case the incremental value indicating means is non-rotatably connected to the rotor and disposed on the rotor in case the incremental value indicating means is non-rotatably connected to the stator, a timer adapted to be reset and restarted subsequent to each passage of an increment mark past the incremental value sensor, and an evaluating unit adapted to determine, depending on a value of the timer, the rotor parameter for an intermediate rotational position of the rotor which is between a first rotational position of the rotor at a first instant of a passage of a first increment mark (12.1) and a second rotational position of the rotor at a second instant of a passage of a second increment mark (12.2) adjacent to the first increment mark (12.1), characterized by absolute value indicating means comprising an encoder contour and a distance sensor disposed opposite to the absolute value indicating means and adapted to measure a distance to the encoder contour, wherein the encoder contour corresponds to a number of pole pairs of an electric motor.
A method for processing plate-like workpieces, preferably metal sheets, supported on a workpiece support of a machine tool by cutting and/or forming, comprising: processing the workpiece by moving a tool punch and a tool die, which form a tool for processing by separating and/or forming, along a stroke axis into a processing position above or below a support plane on the workpiece support in order to process the workpiece by punching at a crimp-shaped formed shape projecting upwards or downwards beyond the support plane, wherein the tool die is supported in a tool die holder and the tool punch is supported in a tool punch holder, which holders are moved towards each other along the stroke axis independently of each other for processing of the workpiece, wherein the tool die holder and the tool punch holder are designed as tool holders to which different tools can selectively be fixed, characterized in that in a previous step, the crimp-shaped formed shape is made in the workpiece resting on the workpiece support by roll-forming using a forming tool and wherein, prior to processing of the workpiece by punching on the formed shape, the forming tool is exchanged with the tool. processing the workpiece by moving a tool punch and a tool die, which form a tool for processing by separating and/or forming, along a stroke axis into a processing position above or below a support plane on the workpiece support in order to process the workpiece by punching at a crimp-shaped formed shape projecting upwards or downwards beyond the support plane, wherein the tool die is supported in a tool die holder and the tool punch is supported in a tool punch holder, which holders are moved towards each other along the stroke axis independently of each other for processing of the workpiece, wherein the tool die holder and the tool punch holder are designed as tool holders to which different tools can selectively be fixed, characterized in that in a previous step, the crimp-shaped formed shape is made in the workpiece resting on the workpiece support by roll-forming using a forming tool and wherein, prior to processing of the workpiece by punching on the formed shape, the forming tool is exchanged with the tool.
A carrier for use in an in vitro diagnostics environment comprising: a tube holder configured to hold a sample tube; characterized in that the carrier further comprises one or more optical devices configured to receive an image of a barcode on the sample tube; and a reflective surface of the tube holder configured to reflect the image of the barcode to the one or more optical devices when the tube is in the tube holder in an orientation such that the barcode is not in a direct line of sight of the optical device. a tube holder configured to hold a sample tube; characterized in that the carrier further comprises one or more optical devices configured to receive an image of a barcode on the sample tube; and a reflective surface of the tube holder configured to reflect the image of the barcode to the one or more optical devices when the tube is in the tube holder in an orientation such that the barcode is not in a direct line of sight of the optical device.
An apparatus, comprising: a plurality of power conversion devices (102, 102a-y, 103a-m, 104a-c, 107, 108a-m, 112a-x, 122a-m, 411a-c), each including two inputs (106, 210a-r) configured to couple to one or more power generators (101a-y, 111a-n); and a plurality of conductors (105a-b, 220, 220a-f, 234a-b, 412a-d) connecting each power conversion device to at least one other adjacent power conversion device, each conductor having an appropriate length to enable connecting adjacent power conversion devices having the one or more power generators coupled thereto; and characterized by a packaging assembly configured to store the plurality of conductors connected to the plurality of power conversion devices prior to deployment of the power conversion devices and conductors on power generators. a plurality of power conversion devices (102, 102a-y, 103a-m, 104a-c, 107, 108a-m, 112a-x, 122a-m, 411a-c), each including two inputs (106, 210a-r) configured to couple to one or more power generators (101a-y, 111a-n); and a plurality of conductors (105a-b, 220, 220a-f, 234a-b, 412a-d) connecting each power conversion device to at least one other adjacent power conversion device, each conductor having an appropriate length to enable connecting adjacent power conversion devices having the one or more power generators coupled thereto; and characterized by a packaging assembly configured to store the plurality of conductors connected to the plurality of power conversion devices prior to deployment of the power conversion devices and conductors on power generators.
A system for operating an automated vehicle, wherein a crowd of passing pedestrians blocks the automated vehicle from moving, thereby preventing the automated vehicle from proceeding forward, said system comprising: an object-detector that detects pedestrians proximate to a host-vehicle; and a controller in control of movement of the host-vehicle and in communication with the object-detector, said controller operates the host-vehicle to stop the host-vehicle when pedestrians pass in front of the host-vehicle, and creep-forward after a wait-interval when the pedestrians continue to pass in front of the host-vehicle. an object-detector that detects pedestrians proximate to a host-vehicle; and a controller in control of movement of the host-vehicle and in communication with the object-detector, said controller operates the host-vehicle to stop the host-vehicle when pedestrians pass in front of the host-vehicle, and creep-forward after a wait-interval when the pedestrians continue to pass in front of the host-vehicle. stop the host-vehicle when pedestrians pass in front of the host-vehicle, and creep-forward after a wait-interval when the pedestrians continue to pass in front of the host-vehicle.
A method for calculating discrimination criteria for programming into a test meter for distinguishing between a blood sample and a control solution sample, the method comprising the steps of: (a) calculating an interferent index and a residual reaction index for a plurality of control solution samples, in which the interferent index includes a summation of at least two current values measured during a first test potential and the residual reaction index is a first ratio of two current values measured during a second test potential and a third test potential, respectively; and (b) calculating a discrimination line based on a regression analysis of the interferent index and the residual reaction index for the plurality of control solution samples. (a) calculating an interferent index and a residual reaction index for a plurality of control solution samples, in which the interferent index includes a summation of at least two current values measured during a first test potential and the residual reaction index is a first ratio of two current values measured during a second test potential and a third test potential, respectively; and (b) calculating a discrimination line based on a regression analysis of the interferent index and the residual reaction index for the plurality of control solution samples.
A flame retardant polymer composition comprising: a) a polymer; b) from 1% to 50%, by weight based on the total weight of the flame retardant polymer composition, of a flame retardant material obtained by thermal conversion of one or more compounds of formula before incorporation into the polymer composition, said thermal conversion comprising heating at temperatures of 200°C or higher from 0.01 hour to 20 hours one or more than one compound of formula wherein R is C 1-12 alkyl, C 6-10 aryl, C 7-18 alkylaryl, or C 7-18 arylalkyl, wherein said alkyl, aryl, alkylaryl, or arylalkyl are unsubstituted or are substituted by halogen, hydroxyl, amino, C 1-4 alkylamino, di-C 1-4 alkylamino, C 1-4 alkoxy, carboxy or C 2-5 alkoxycarbonyl; M is a metal, y is a number of from 1 to 4 so that M ( +)y is a metal cation where (+)y represents the charge formally assigned to the cation, and p is a number of from 1 to 4; and c) 1% or more, by weight based on the total weight of the composition, of one or more compounds selected from the group consisting of melam and melam derivatives. a) a polymer; b) from 1% to 50%, by weight based on the total weight of the flame retardant polymer composition, of a flame retardant material obtained by thermal conversion of one or more compounds of formula before incorporation into the polymer composition, said thermal conversion comprising heating at temperatures of 200°C or higher from 0.01 hour to 20 hours one or more than one compound of formula wherein R is C 1-12 alkyl, C 6-10 aryl, C 7-18 alkylaryl, or C 7-18 arylalkyl, wherein said alkyl, aryl, alkylaryl, or arylalkyl are unsubstituted or are substituted by halogen, hydroxyl, amino, C 1-4 alkylamino, di-C 1-4 alkylamino, C 1-4 alkoxy, carboxy or C 2-5 alkoxycarbonyl; M is a metal, y is a number of from 1 to 4 so that M ( +)y is a metal cation where (+)y represents the charge formally assigned to the cation, and p is a number of from 1 to 4; and R is C 1-12 alkyl, C 6-10 aryl, C 7-18 alkylaryl, or C 7-18 arylalkyl, wherein said alkyl, aryl, alkylaryl, or arylalkyl are unsubstituted or are substituted by halogen, hydroxyl, amino, C 1-4 alkylamino, di-C 1-4 alkylamino, C 1-4 alkoxy, carboxy or C 2-5 alkoxycarbonyl; M is a metal, y is a number of from 1 to 4 so that M ( +)y is a metal cation where (+)y represents the charge formally assigned to the cation, and p is a number of from 1 to 4; and c) 1% or more, by weight based on the total weight of the composition, of one or more compounds selected from the group consisting of melam and melam derivatives.
Gearbox to be fixed to a turbine engine in order to drive at least one apparatus annexed to the turbine engine, where the gearbox comprises: - a housing; - a power take-off member capable of engaging with a radial shaft of the turbine engine; - at least one kinetic chain (2, 3, 8) located inside the housing and capable of transmitting the rotational movement of the power take-off to at least one rotatable shaft of an apparatus, the kinematic chain (2, 3, 8) comprising a first end (4, 5, 12) and a second end (6, 7, 13), characterised in that the power take-off member is linked to the kinematic chain (2, 3, 8) by a gear having convergent axes located within the kinematic chain (2, 3, 8), wherein the kinematic chain comprises at least one central shaft capable of transmitting the movement of the power take-off member to at least one rotatable shaft of an apparatus through at least one intermediate gear, where the central shaft comprises two ends (12,13), the power take-off member being linked to the central shaft by a gear having convergent axes, located between the first end and the second end of the central shaft, said central shaft comprising a first and second part, with the power take-off member being linked to the first part by a first gear with convergent axes and to the second part by a second gear with convergent axes - a housing; - a power take-off member capable of engaging with a radial shaft of the turbine engine; - at least one kinetic chain (2, 3, 8) located inside the housing and capable of transmitting the rotational movement of the power take-off to at least one rotatable shaft of an apparatus, the kinematic chain (2, 3, 8) comprising a first end (4, 5, 12) and a second end (6, 7, 13),
A method for the continuous and/or instantaneous determination of excess post-exercise oxygen consumption, EPOC, and/or estimated blood lactate, the method comprising: (a) the acquisition of continuous heart rate, HR, data and/or the acquisition of raw physiological signals and the subsequent determination of HR from these physiological signals; (b) the determination, from the HR, of the physiological parameters HR reserve, defined as the difference between an individual's HR max and HR res and VO 2 reserve, defined as the difference between an individual's VO 2max and VO 2rest; (c) the calculation of an individual's percentage VO 2max from the determined parameters; characterized by (d) the application of a supply-demand equation utilizing one of the determined parameters or VO 2max to determine EPOC, where continuous and/or instantaneous EPOC is determined by a supply-demand equation, where there is a supply in reactions that increases EPOC (f supply), and a demand in reactions that decreased EPOC ( f demand), wherein the supply-demand equation is as follows: EPOC t + 1 = EPOC t + a * e b ∗ ν − c ∗ e d ∗ 1 − V * EPOC t wherein, V is the Percentage VO 2max EPOC= 0 (initialized), a * e b*V is the f supply, c * e d * (1-V) is the f demand, a, b, c and d are empirically determined parameters, e is the base of the natural logarithm, and t is time; (e) the calculation of estimated blood lactate levels as a function of EPOC; and (f) the transmission of the HR and/or EPOC and/or estimated blood lactate data. (a) the acquisition of continuous heart rate, HR, data and/or the acquisition of raw physiological signals and the subsequent determination of HR from these physiological signals; (b) the determination, from the HR, of the physiological parameters HR reserve, defined as the difference between an individual's HR max and HR res and VO 2 reserve, defined as the difference between an individual's VO 2max and VO 2rest; (c) the calculation of an individual's percentage VO 2max from the determined parameters; characterized by (d) the application of a supply-demand equation utilizing one of the determined parameters or VO 2max to determine EPOC, where continuous and/or instantaneous EPOC is determined by a supply-demand equation, where there is a supply in reactions that increases EPOC (f supply), and a demand in reactions that decreased EPOC ( f demand), wherein the supply-demand equation is as follows: EPOC t + 1 = EPOC t + a * e b ∗ ν − c ∗ e d ∗ 1 − V * EPOC t wherein, V is the Percentage VO 2max EPOC= 0 (initialized), a * e b*V is the f supply, c * e d * (1-V) is the f demand, a, b, c and d are empirically determined parameters, e is the base of the natural logarithm, and t is time; V is the Percentage VO 2max EPOC= 0 (initialized), a * e b*V is the f supply, c * e d * (1-V) is the f demand, a, b, c and d are empirically determined parameters, e is the base of the natural logarithm, and t is time; (e) the calculation of estimated blood lactate levels as a function of EPOC; and (f) the transmission of the HR and/or EPOC and/or estimated blood lactate data.
A compound of formula: wherein R 1 is hydrogen, OH or a group of formula -O-C 1-6 alkyl; R 2 is hydrogen, OH or a group of formula -O-C 1-6 alkyl; R 3 is hydrogen, OH or a group of formula -O-C 1-6 alkyl and R 4 is OH or R 3 is hydrogen and R 4 is hydrogen, OH or a group of formula -O-C 1-6 alkyl; and R 5 is a hydrogen atom or a group of the following formula: wherein R 6 is OH or NH 2; or a pharmaceutically acceptable salt, solvate or hydrate or a pharmaceutically acceptable formulation thereof; wherein the following compounds are excluded: R 1 is hydrogen, OH or a group of formula -O-C 1-6 alkyl; R 2 is hydrogen, OH or a group of formula -O-C 1-6 alkyl; R 3 is hydrogen, OH or a group of formula -O-C 1-6 alkyl and R 4 is OH or R 3 is hydrogen and R 4 is hydrogen, OH or a group of formula -O-C 1-6 alkyl; and R 5 is a hydrogen atom or a group of the following formula: wherein R 6 is OH or NH 2;