mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an OSB panel in which long wood chips coated with an adhesive are spread in an oriented manner in at least three layers (1, 2, 3), wherein the wood chips in adjacent layers (1, 2, 3) are aligned in an offset manner and subsequently the spread layers (1, 2, 3) are compressed under high pressure and temperature to form a panel of desired thickness, the adhesive hardening in the process, wherein a pre-compacted mat composed of thermoplastic fibres and wood fibres is applied to the layer of long wood chips that was spread last and on compression the plastics fibres melt and the wood fibres are pressed into the interstices formed between the long wood chips, with the result that a smooth surface forms on the panel after the pressing.
A therapeutic combination of a compound having antiestrogenic activity and a CDK4/6 inhibitor for use in a method for the treatment of breast cancer or other estrogen-responsive tumors in a human patient, wherein the method comprises subjecting said patient to reduced calorie intake for a period of 24-190 hours while said patient is being treated with said therapeutic combination, wherein said compound having antiestrogenic activity is fulvestrant and said CDK4/6 inhibitor is Palbociclib, and wherein said reduced calorie intake is a daily calorie intake reduced by 50-100%, more preferably by 75-100%, with respect to the normal daily calorie intake, which is 2000-3000 kcal/day for an adult male subject and 1600-2400 kcal/day for an adult female subject.
Silicon carbide substrate for epitaxially deposited layers which is essentially monocrystalline, the silicon carbide substrate comprising: a main surface, wherein an orientation of said main surface is such that a normal vector ( Ó) of the main surface includes a tilt angle in a range between 0.5° and 8° with a normal vector ( Ń) of the basal lattice plane of the substrate, a chamfered peripheral region, wherein a surface of the chamfered peripheral region includes a bevel angle with said main surface, characterized in that said bevel angle is chosen so that, in more than 75 % of the peripheral region, the bevel angle, which is included by a normal vector ( F _i) of the chamfered peripheral region and the normal vector of the main surface, is smaller than the tilt angle, which is included by the normal vector of the main surface and the normal vector of the basal lattice plane of the substrate. a main surface, wherein an orientation of said main surface is such that a normal vector ( Ó) of the main surface includes a tilt angle in a range between 0.5° and 8° with a normal vector ( Ń) of the basal lattice plane of the substrate, a chamfered peripheral region, wherein a surface of the chamfered peripheral region includes a bevel angle with said main surface, characterized in that said bevel angle is chosen so that, in more than 75 % of the peripheral region, the bevel angle, which is included by a normal vector ( F _i) of the chamfered peripheral region and the normal vector of the main surface, is smaller than the tilt angle, which is included by the normal vector of the main surface and the normal vector of the basal lattice plane of the substrate.
A light bulb with wide lighting emitting angle, comprising: multiple LED filaments (8801; 8802; 8603; 8604), each LED filament has a top electrode (8803; 8854) and a bottom electrode (8804; 8851); a bulb shell; a bulb base configured for defining a container space with the bulb shell for enclosing the multiple LED filaments (8801; 8802; 8603; 8604); a central column (8807; 8604), comprising a support and a column part; a bracket, wherein the bracket is fixed to a top end of the column part and extending outwardly, a bottom end of the column part is fixed to the support, the top electrodes (8803; 8854) of the multiple LED filaments (8801; 8802; 8603; 8604) are fixed to the bracket to keep a tilt angle with respect to a longitudinal direction of the central column (8807; 8604); and multiple supporting wires respectively connecting the bottom electrodes of the multiple LED filaments (8801; 8802; 8603; 8604) to the support of the central column (8807; 8604), characterized in that the multiple supporting wires (8811; 8829) are respectively connected to different isolated heat sinks (8821; 8823). multiple LED filaments (8801; 8802; 8603; 8604), each LED filament has a top electrode (8803; 8854) and a bottom electrode (8804; 8851); a bulb shell; a bulb base configured for defining a container space with the bulb shell for enclosing the multiple LED filaments (8801; 8802; 8603; 8604); a central column (8807; 8604), comprising a support and a column part; a bracket, wherein the bracket is fixed to a top end of the column part and extending outwardly, a bottom end of the column part is fixed to the support, the top electrodes (8803; 8854) of the multiple LED filaments (8801; 8802; 8603; 8604) are fixed to the bracket to keep a tilt angle with respect to a longitudinal direction of the central column (8807; 8604); and multiple supporting wires respectively connecting the bottom electrodes of the multiple LED filaments (8801; 8802; 8603; 8604) to the support of the central column (8807; 8604), characterized in that the multiple supporting wires (8811; 8829) are respectively connected to different isolated heat sinks (8821; 8823).
A method for operating an evolved Node B, eNB, in time division duplex, TDD, mode, comprising: via an enhanced physical downlink control charnel, EPDCCH, made up of indexed enhanced control channel elements, ECCEs, transmitting downlink control information, DCI, to a UE that grants a physical downlink shared channel, PDSCH, resource for a downlink subframe belonging to a bundling window and assigning a physical uplink control channel, PUCCH, resource index to the UE for acknowledging the PDSCH transmission calculated as a function of the lowest index of the ECCEs used to construct the EPDCCH added to the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window and added to one of two specified integer values; and, transmitting an acknowledgment resource offset, ARO, in an ARO field of the DCI that instructs the UE to shift the PUCCH resource index by an amount equal to the value of the ARO and wherein, except for the earliest subframe of the bundling window, values for the ARO are selected from a group that includes a value that shifts the PUCCH resource index to a range used for acknowledging PDSCH transmissions in the earliest subframe of the bundling window, wherein a first value of the group comprises minus the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window minus 2. via an enhanced physical downlink control charnel, EPDCCH, made up of indexed enhanced control channel elements, ECCEs, transmitting downlink control information, DCI, to a UE that grants a physical downlink shared channel, PDSCH, resource for a downlink subframe belonging to a bundling window and assigning a physical uplink control channel, PUCCH, resource index to the UE for acknowledging the PDSCH transmission calculated as a function of the lowest index of the ECCEs used to construct the EPDCCH added to the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window and added to one of two specified integer values; and, transmitting an acknowledgment resource offset, ARO, in an ARO field of the DCI that instructs the UE to shift the PUCCH resource index by an amount equal to the value of the ARO and wherein, except for the earliest subframe of the bundling window, values for the ARO are selected from a group that includes a value that shifts the PUCCH resource index to a range used for acknowledging PDSCH transmissions in the earliest subframe of the bundling window, wherein a first value of the group comprises minus the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window minus 2.
A cyclooctatetraenetricarbonyl ruthenium complex represented by the following General Formula: whereby in the formula, one or two of R 1, R 2, R 3, R 4, R 5, R 6, R 7, and R 8 is or are each independently an alkyl group having 1 to 6 carbon atoms; the remaining are hydrogen atoms; and the total number of carbon atoms of the alkyl group or groups is 6 or less.
A method for preparing silicone-treated films of polyethylene terephthalate, in which the silicone treatment occurs simultaneously with the extrusion of the films, which comprises the steps of: (i) longitudinal stretching of a casting of melted PET; (ii) cooling to ambient temperature of the film obtained in step (i); (iii) spreading, on the cooled film, a silicone mixture; (iv) heating the PET film coated with the silicone mixture to a temperature comprised between 20°C and 70°C for a time comprised between 1 and 15 seconds; (v) lateral stretching of the PET film obtained in step (iv); (vi) heating of the film obtained in step (v) to temperatures comprised between 170°C and 280°C for a time comprised between 3 and 30 seconds; (vii) cooling of the film obtained in step (vi) down to ambient temperature; wherein the silicone mixture comprises: (a) from 1% to 50% by weight on the total weight of the mixture, of one or more monomers and/or one or more silicone prepolymers; (b) from 50% to 95% by weight on the total weight of the mixture, of one or more apolar organic solvents having a boiling point comprised between 50°C and 120 °C and a vapor pressure comprised between 2 and 30 kPa, measured at 20°C; (c) from 0.1% to 5% by weight on the total weight of the mixture, of one or more cross-linking agents; and (d) from 40 to 80 ppm of catalytic platinum, in which said catalytic platinum is in complexed form. (i) longitudinal stretching of a casting of melted PET; (ii) cooling to ambient temperature of the film obtained in step (i); (iii) spreading, on the cooled film, a silicone mixture; (iv) heating the PET film coated with the silicone mixture to a temperature comprised between 20°C and 70°C for a time comprised between 1 and 15 seconds; (v) lateral stretching of the PET film obtained in step (iv); (vi) heating of the film obtained in step (v) to temperatures comprised between 170°C and 280°C for a time comprised between 3 and 30 seconds; (vii) cooling of the film obtained in step (vi) down to ambient temperature; (a) from 1% to 50% by weight on the total weight of the mixture, of one or more monomers and/or one or more silicone prepolymers; (b) from 50% to 95% by weight on the total weight of the mixture, of one or more apolar organic solvents having a boiling point comprised between 50°C and 120 °C and a vapor pressure comprised between 2 and 30 kPa, measured at 20°C; (c) from 0.1% to 5% by weight on the total weight of the mixture, of one or more cross-linking agents; and (d) from 40 to 80 ppm of catalytic platinum, in which said catalytic platinum is in complexed form.
A saddle type vehicle comprising: a vehicle body frame having a head pipe and a main frame extending rearward from the head pipe; an engine having a cylinder portion extending forward and upward obliquely from a crank case at a position downward of the main frame; a radiator disposed in front of the cylinder portion of the engine; and air intake pipes (61, 30) having a throttle body for adjusting an air amount supplied to the engine provided upward of the cylinder portion, wherein the radiator includes a mixed flow fan for flowing exhaust air from the radiator rearward and outward in the vehicle width direction and a motor for rotating the mixed flow fan disposed on a rear surface thereof, and the throttle body is arranged rearward of the mixed flow fan so as to be overlapped with the mixed flow fan in front view characterized in that the engine is a parallel multi-cylinder engine having a single air-inlet port to which the air intake pipes (61, 30) are connected, and a branch intake air passage branched from the air-inlet port to a plurality of cylinders, and wherein an air cleaner is provided upwards from the throttle body, and the cylinder portion, the throttle body, the air intake pipes (61, 30) and the air cleaner are substantially vertically in line with each other, and wherein the mixed flow fan substantially flows the exhaust air past the throttle body.
A surgical instrument, comprising: an elastic spine assembly comprising a proximal spine portion and a distal spine portion that is elastically coupled to said proximal spine portion for axial movement relative thereto between a neutral position and an elongated position; a first jaw attached to said distal spine portion; a second jaw movably supported relative to said first jaw for selective movement between open and closed positions relative to said first jaw; a closure system configured to apply a closure motion to said second jaw and to move said distal spine portion from said neutral position to said elongated position upon actuation of the closure system; and a firing system configured to axially advance a firing member from a starting to an ending position within said first jaw upon actuation of the firing system and to enable said distal spine portion to return to said neutral position to thereby increase said closure motion applied to said second jaw. an elastic spine assembly comprising a proximal spine portion and a distal spine portion that is elastically coupled to said proximal spine portion for axial movement relative thereto between a neutral position and an elongated position; a first jaw attached to said distal spine portion; a second jaw movably supported relative to said first jaw for selective movement between open and closed positions relative to said first jaw; a closure system configured to apply a closure motion to said second jaw and to move said distal spine portion from said neutral position to said elongated position upon actuation of the closure system; and a firing system configured to axially advance a firing member from a starting to an ending position within said first jaw upon actuation of the firing system and to enable said distal spine portion to return to said neutral position to thereby increase said closure motion applied to said second jaw.
Filling machine for filling containers with liquid contents, wherein the filling machine has a plurality of filling positions, wherein each filling position has a filling element, and wherein each filling element comprises a sealing element for sealing an opening (5.1) of the container, a liquid channel which can be controlled by a filling valve, and a gas channel which can be closed by a gas valve, wherein the liquid channel is fluidically connected to the interior (5.2) of the container when the filling valve is open, and the gas channel is fluidically connected to the interior (5.2) of the container when the gas valve is open, wherein the filling machine is designed to introduce CO 2 or N 2 into the container via the gas channel before it is filled with liquid contents, and to produce a preload pressure in the container, wherein the CO 2 which is present under preload pressure in the container for carbonating or the N 2 present in the container for nitrogenating the liquid contents are of the required quantity, and then to introduce the liquid contents into the container via the liquid channel under a filling pressure which exceeds the preload pressure, characterised in that the filling element has a pressure sensor, which is configured such as to measure the pressure in the interior (5.2) of the container and/or in the region of the opening (5.1) of the container, and that the sealing element is adjacent to a protection space, and each filling position has a closing device, wherein the closing device is configured such as to close the opening (5.1) of the container in the protection space with a closing cover.
A transmission method for a first communications device (300, 500), comprising: sending a first data frame to a second communications device (400, 600) by using an unlicensed carrier; and sending M second data frames to the second communications device (400, 600) by using a licensed carrier, wherein at least one data frame in the M second data frames carries first information, the first information comprises information required for detecting the first data frame by the second communications device (400, 600), and M is an integer not less than 1, characterized in that the M second data frames are sent to the second communications device (400, 600) by using the licensed carrier when or after the first data frame is sent, and the information comprised in the first information is second information which is suitable for being used to trigger the second communications device (400, 600) to detect the first data frame on the unlicensed carrier; wherein second information is furthermore suitable for enabling the second communications device to detect a synchronization signal in a buffer according to the second information, to acquire a start moment of the first data frame by using the detected synchronization signal and to detect the first data frame in the buffer according to the start moment. sending a first data frame to a second communications device (400, 600) by using an unlicensed carrier; and sending M second data frames to the second communications device (400, 600) by using a licensed carrier, wherein at least one data frame in the M second data frames carries first information, the first information comprises information required for detecting the first data frame by the second communications device (400, 600), and M is an integer not less than 1, characterized in that the M second data frames are sent to the second communications device (400, 600) by using the licensed carrier when or after the first data frame is sent, and the information comprised in the first information is second information which is suitable for being used to trigger the second communications device (400, 600) to detect the first data frame on the unlicensed carrier; wherein second information is furthermore suitable for enabling the second communications device to detect a synchronization signal in a buffer according to the second information, to acquire a start moment of the first data frame by using the detected synchronization signal and to detect the first data frame in the buffer according to the start moment.
A compound of formula I, or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen or C 1-4 alkyl, and R 2 is hydrogen or C 1-4 alkyl, or R 1 and R 2, together with the atom to which they are attached, form a C 3-6 cycloalkyl ring; R 3 is halogen or -NHR 4; R 4 is a 5- or 6-membered saturated heterocycle or a 5- or 6-membered saturated heterocycle containing 1 N atom, wherein the heterocycle is unsubstituted or substituted with one, two, or three moieties independently selected from the group consisting of C R 5 and halogen; R 5 is C 1-4 alkyl; and R 6, R 7, R 8, and R 9, are independently selected from hydrogen, halogen and C 1-4 alkyl. R 1 is hydrogen or C 1-4 alkyl, and R 2 is hydrogen or C 1-4 alkyl, or R 1 and R 2, together with the atom to which they are attached, form a C 3-6 cycloalkyl ring; R 3 is halogen or -NHR 4; R 4 is a 5- or 6-membered saturated heterocycle or a 5- or 6-membered saturated heterocycle containing 1 N atom, wherein the heterocycle is unsubstituted or substituted with one, two, or three moieties independently selected from the group consisting of C R 5 and halogen; R 5 is C 1-4 alkyl; and R 6, R 7, R 8, and R 9, are independently selected from hydrogen, halogen and C 1-4 alkyl.
Support rod for a shaft rod of a heald shaft, configured as a hollow profile, with lateral walls (18, 19), which between them delimit at least one hollow space, wherein the lateral walls (18, 19) have strip-shaped snap-in zones (25, 26) located at opposing points, on which sections of the lateral walls (18, 19) protrude into the hollow space defined by them, and wherein the snap-in zone extends in a longitudinal direction of the profile rod, wherein between the snap-in zones (25, 26) of the lateral walls (18, 19) a profile piece is held, which extends between the snap-in zones (25, 26), characterized in that the profile piece is held by fastening means, whereby the profile piece has at least one bore passing through in the transverse direction from a lateral wall to the other lateral wall, and in that the fastening means is arranged in the snap-in zone and has the form of at least one rivet (31, 32) or a screw, which is accommodated by the bore extending from lateral wall to lateral wall.
A field device adapted to perform diagnostics and to identify a diagnostic condition in an industrial process, comprising: an infrared sensor array (120-1,..., 120-N) comprising a plurality of infrared sensors (120A, 120B) arranged to sense infrared emissions from different locations in the industrial process; processing circuitry comprising an analog to digital converter configured to receive information related to the intensity of the thermal radiation received by each sensor of the plurality of infrared sensors (120A, 120B) and further configured to generate an infrared image and adapted to provide a processed output to a microprocessor, the microprocessor configured to compare an output from a first subsection of the sensor array (120-1,..., 120-N) directed to a first direction within the industrial process with an output from a second subsection of the sensor array (120-1,..., 120-N) directed to a second direction within the industrial process and responsively adapted to identify a diagnostic condition based upon the comparison, wherein the diagnostic condition comprises an indication of a possible problem in the industrial process. an infrared sensor array (120-1,..., 120-N) comprising a plurality of infrared sensors (120A, 120B) arranged to sense infrared emissions from different locations in the industrial process; processing circuitry comprising an analog to digital converter configured to receive information related to the intensity of the thermal radiation received by each sensor of the plurality of infrared sensors (120A, 120B) and further configured to generate an infrared image and adapted to provide a processed output to a microprocessor, the microprocessor configured to compare an output from a first subsection of the sensor array (120-1,..., 120-N) directed to a first direction within the industrial process with an output from a second subsection of the sensor array (120-1,..., 120-N) directed to a second direction within the industrial process and responsively adapted to identify a diagnostic condition based upon the comparison, wherein the diagnostic condition comprises an indication of a possible problem in the industrial process.
A method for the manufacture of a spoke for spoked wheels including a step of forming a head of said spoke at at least one longitudinal end of the shank thereof, wherein said forming is obtained by means of an equipment for the plastic deformation of the end of the shank, characterised in that said plastic deformation is obtained by maintaining the shank in relative rotation with respect to said equipment.
A vehicle PTO driveline in which a PTO input shaft drives a PTO wet clutch which when engaged drives a PTO output shaft, the driveline having an eccentric formation on the input shaft which oscillates a pumping piston when the input shaft rotates, the oscillating piston pumping cooling/lubricating fluid around a circuit which includes the wet clutch and a fluid reservoir provided by part of a housing which encloses the driveline, characterised in that the piston is connected with the eccentric formation by a ring which surrounds the eccentric formation and a hollow tube which is attached to the ring and which carries the piston at a lower end, the piston oscillating inside a chamber when the input shaft rotates, said chamber being connected with the fluid reservoir and the oscillating piston pumping the fluid along the hollow tube into the ring which then delivers the fluid into internal passages in the input shaft from where the fluid flows to the wet clutch.