mhurhangee/ep-ind-claims huggingface dataset:
A halogen-containing resin composition comprising 100 parts by weight of a halogen-containing resin; 0.01 to 2.5 parts by weight of a polyvinyl alcohol having a saponification degree determined in accordance with JIS K6726 of from 60 to 99.9 mol% and a viscosity-average polymerization degree determined in accordance with JIS K6726 of from 100 to 1,000; 0.01 to 2.5 parts by weight of a polyol having a molecular weight of 2,000 or less and a hydroxyl content of 10 % by weight or more; and 0.01 to 5 parts by weight of a zinc compound. 100 parts by weight of a halogen-containing resin; 0.01 to 2.5 parts by weight of a polyvinyl alcohol having a saponification degree determined in accordance with JIS K6726 of from 60 to 99.9 mol% and a viscosity-average polymerization degree determined in accordance with JIS K6726 of from 100 to 1,000; 0.01 to 2.5 parts by weight of a polyol having a molecular weight of 2,000 or less and a hydroxyl content of 10 % by weight or more; and 0.01 to 5 parts by weight of a zinc compound.
Pivotable horn antenna for a radar level indicator, comprising: an antenna horn; a region in the form of a ball joint head; a housing having a joint socket (103, 104), in which the ball joint head can rotate; wherein the ball joint head is part of the antenna horn or is mounted above the antenna horn; wherein a lower region of the housing, through which the antenna horn can be moved, surrounds parts of the ball joint head and the antenna horn; wherein the lower part of the housing has an outer diameter, which decreases stepwise when moving in a downward direction; wherein the lower region of the housing has a cylindrical recess and comprises an outer thread at the lower end, for screwing the horn antenna in a threaded hole of a container; wherein the antenna horn has a decreasing wall thickness in the region, in which the antenna horn touches the inner wall of the lower region of the housing when the tilt angle is maximum, such that the maximum tilt angle is increased; wherein the outer thread has a diameter of 1 inch, 1,5 inches or 2 inches. an antenna horn; a region in the form of a ball joint head; a housing having a joint socket (103, 104), in which the ball joint head can rotate; wherein the ball joint head is part of the antenna horn or is mounted above the antenna horn; wherein a lower region of the housing, through which the antenna horn can be moved, surrounds parts of the ball joint head and the antenna horn; wherein the lower part of the housing has an outer diameter, which decreases stepwise when moving in a downward direction; wherein the lower region of the housing has a cylindrical recess and comprises an outer thread at the lower end, for screwing the horn antenna in a threaded hole of a container; wherein the antenna horn has a decreasing wall thickness in the region, in which the antenna horn touches the inner wall of the lower region of the housing when the tilt angle is maximum, such that the maximum tilt angle is increased; wherein the outer thread has a diameter of 1 inch, 1,5 inches or 2 inches.
A computer implemented method for controlling an optical code scanner that reads printed optical codes and electronic optical codes, the method comprising the steps of: configuring a first set of readability settings for a first image capture device and a first illumination device to operate through a first scanning window corresponding to a first predetermined scanning mode to optimize reading of one of printed optical codes and electronic optical codes presented to the first scanning window; configuring a second set of readability settings for a second image capture device and a second illumination device to operate through a second scanning window corresponding to a second predetermined scanning mode to optimize reading of the other of printed optical codes and electronic optical codes presented to the second scanning window, wherein the second set of readability settings is differently configured to the first set of readability settings; capturing (step 515) a first image of an optical code through the first scanning window and a second image of the optical code through the second scanning window; and processing (step 520) the first and second captured images to identify and read the optical code from at least one of the first and second images. configuring a first set of readability settings for a first image capture device and a first illumination device to operate through a first scanning window corresponding to a first predetermined scanning mode to optimize reading of one of printed optical codes and electronic optical codes presented to the first scanning window; configuring a second set of readability settings for a second image capture device and a second illumination device to operate through a second scanning window corresponding to a second predetermined scanning mode to optimize reading of the other of printed optical codes and electronic optical codes presented to the second scanning window, wherein the second set of readability settings is differently configured to the first set of readability settings; capturing (step 515) a first image of an optical code through the first scanning window and a second image of the optical code through the second scanning window; and processing (step 520) the first and second captured images to identify and read the optical code from at least one of the first and second images.
Lighting device for mounting on a building wall comprising a mounting frame with a back wall and which is provided on its visible side with a transparent pane, wherein in the mounting frame more than one LED and a reflecting surface are arranged, wherein the LEDs are attached to the mounting frame as LED strips, wherein the LED strips are attached to frame profiles, which are connected to the mounting frame and the electrification required for operation of the lighting device is invisibly installed between the frame profiles and the mounting frame and wherein the reflecting surface is formed by a reflective foil as aluminium foil, which is glued to the back wall and which has a structured surface on its side facing the pane, wherein LED strips are arranged on only two sides of the mounting frame.
A thermosensitive liposome comprising dipalmitoylphosphatidylcholine (DPPC), distearoylphosphatidylglycerol (DSPG), monostearoylphosphatidylcholine (MSPC), PEG-2000 modified distearoylphosphatidylethanolamine (DSPE-PEG2000), and an active agent, in the ratio of 60-80:6-12:6-12:4-15:1-30 on a weight basis, wherein the liposome has a gel to liquid phase transition temperature of from 39.0°C to 45°C.
Turret, in particular for a fighting vehicle; said turret comprising a hollow casing provided with a firearm, such as a cannon, said casing comprising: - a front portion or shell, on which there is mounted said firearm and which defines a front cavity, which at least partially houses said firearm, and - a rear portion or tail, which defines a rear cavity, said front and rear cavities (20, 24) at least partially communicating with one another; said casing comprising an upper half-shell at least partially widening towards the bottom of said casing; wherein said rear cavity houses at least one between a projectile magazine and a mechanism to load the projectiles into the breech of said firearm; wherein said front portion or shell and said rear portion or tail are distinct from one another and are mutually mechanically assembled and mounted in a removable manner; characterized in that said casing comprises a lower half-shell at least partially widening towards the top of said casing, said upper half-shell and said lower half-shell meeting and widening in at least one edge border of the casing; in that said turret further comprises at least one upper armored panel, and at least one lower armored panel; in that in the region where said at least one edge border is provided, said upper half-shell and said lower half-shell have, on the outside, said upper armored panel and said lower armored panel respectively; said panels (40, 42) being adjacent and peripherally in contact with one another; and in that, in the region where said at least one edge border is provided, said casing comprises, furthermore, a supporting element which matches and covers the area where the panels (40, 42) are adjacent to one another, for ensuring the stability of the support of the panels (40, 42). - a front portion or shell, on which there is mounted said firearm and which defines a front cavity, which at least partially houses said firearm, and - a rear portion or tail, which defines a rear cavity, said front and rear cavities (20, 24) at least partially communicating with one another;
A method for determining the power values of a signal received by the active antenna in order thus to be able to determine the magnitude and the phase, comprising the following method steps: - use of at least one transmitting antenna and a reference antenna, wherein the reference antenna is disposed at a predetermined position and a predetermined spacing relative to the active antenna; - use of a signal generator for production of a transmission signal, wherein the signal generator is connected to the at least one transmitting antenna and to the reference antenna; wherein from the group of the following method steps (ST1, ST2, ST3): ST1: only transmission (S 1) of the transmission signal by the at least one transmitting antenna and capture (S 1_1) of a power value of the transmission signal received by the active antenna; ST2: only transmission (S 2) of the transmission signal by the reference antenna and capture (S 2_1) of a power value of the transmission signal received by the active antenna; ST3: simultaneous transmission (S 3) of the transmission signal by means of the at least one transmitting antenna and the reference antenna while generating superimposed transmission signals and capture (S 3_1) of a power value of the superimposed transmission signals received by the active antenna; a sequence of at least three method steps (ST1, ST2, ST3) is carried out in any order and in any combination, with at least one method step (ST1, ST2, ST3) being carried out multiple times, wherein the sequence of the at least three method steps (ST1, ST2, ST3) always comprises the method step ST3 at least once. - use of at least one transmitting antenna and a reference antenna, wherein the reference antenna is disposed at a predetermined position and a predetermined spacing relative to the active antenna; - use of a signal generator for production of a transmission signal, wherein the signal generator is connected to the at least one transmitting antenna and to the reference antenna; ST1: only transmission (S 1) of the transmission signal by the at least one transmitting antenna and capture (S 1_1) of a power value of the transmission signal received by the active antenna; ST2: only transmission (S 2) of the transmission signal by the reference antenna and capture (S 2_1) of a power value of the transmission signal received by the active antenna; ST3: simultaneous transmission (S 3) of the transmission signal by means of the at least one transmitting antenna and the reference antenna while generating superimposed transmission signals and capture (S 3_1) of a power value of the superimposed transmission signals received by the active antenna;
A method for transmitting the cylinder pressure data of a plurality of cylinder pressure sensors to a central processing unit, characterized by the use of a communication system for isochronous data transmission comprising a data bus, whereby the plurality of cylinder pressure sensors and the central processing unit are connected via the data bus, whereby each of the plurality of cylinder pressure sensors are combined with a data acquisition unit and a data communication unit to form a measurement node, whereby the cylinder pressure data is transmitted from the measurement node to the central processing unit via a time-slot method.
A motor control device, comprising: an H-bridge circuit to control on/off of a current to be fed to a motor; a drive circuit to drive the H-bridge circuit; a drive command signal generator to generate a drive command signal comprising a pulse signal having drive frequency and duty for a command for driving the motor; a current detection circuit comprising a current detection resistor and a comparator connected in series with the motor and operable to output a comparison output signal based on comparison between a current detection signal of a motor current and a target value signal; a latch circuit arranged to hold a current detection result and responsive to the drive command signal and the comparison output signal; a gate circuit arranged to drive the drive circuit and responsive to the drive command signal and a latch output signal from the latch circuit; and characterised in that a control unit arranged to change the duty of the drive command signal output from the drive command signal generator responsive to the current detection result in the latch circuit. an H-bridge circuit to control on/off of a current to be fed to a motor; a drive circuit to drive the H-bridge circuit; a drive command signal generator to generate a drive command signal comprising a pulse signal having drive frequency and duty for a command for driving the motor; a current detection circuit comprising a current detection resistor and a comparator connected in series with the motor and operable to output a comparison output signal based on comparison between a current detection signal of a motor current and a target value signal; a latch circuit arranged to hold a current detection result and responsive to the drive command signal and the comparison output signal; a gate circuit arranged to drive the drive circuit and responsive to the drive command signal and a latch output signal from the latch circuit; and characterised in that a control unit arranged to change the duty of the drive command signal output from the drive command signal generator responsive to the current detection result in the latch circuit.
A method of performing a RACH procedure to provide a User Equipment UE access to a network in a communication system, the network comprising at least one base station, the RACH procedure comprising at least one step in which a RACH message is sent from the UE to the base station on one or more uplink channels, said message comprising a PRACH preamble transmission, the PRACH preamble being selected among a number of available preambles, the PRACH preamble transmission being made within a set of RACH slots, a RACH slot comprising a number of RACH occasions, the PRACH preamble being sent using a PRACH occasion corresponding to a time-frequency resource, wherein the method comprises encoding auxiliary information in said PRACH occasions and transmitting said auxiliary information to the base station, characterized in that said auxiliary information being encoded using an outer code and an additional code determined from the bits of the PRACH preamble. wherein the method comprises encoding auxiliary information in said PRACH occasions and transmitting said auxiliary information to the base station, characterized in that said auxiliary information being encoded using an outer code and an additional code determined from the bits of the PRACH preamble.
Steering device for a vehicle, comprising - a steering drive having an output shaft for assisting a steering process, and - a blocking device for blocking the steering drive, - wherein the blocking device is arranged directly on the steering drive and blocks the steering drive immediately at the output shaft, characterized in that - the steering device comprises a locking device which locks a position of the blocking device, - and also comprises a common control device which is configured to control the steering drive and the blocking device, - wherein the control device is configured to control the locking device and wherein the locking device can be activated after the blocking device. - a steering drive having an output shaft for assisting a steering process, and - a blocking device for blocking the steering drive, - wherein the blocking device is arranged directly on the steering drive and blocks the steering drive immediately at the output shaft, - the steering device comprises a locking device which locks a position of the blocking device, - and also comprises a common control device which is configured to control the steering drive and the blocking device, - wherein the control device is configured to control the locking device and wherein the locking device can be activated after the blocking device.
A system for controlling an environment within a fuel tank, the system comprising: a conduit comprising a plurality of vents, the conduit defining a path through the fuel tank, the conduit configured to direct a flow of air along the path and out the plurality of vents; at least one sensor configured to measure at least one of temperature and relative humidity within the fuel tank; and a controller comprising a processor, the processor programmed to receive, from the at least one sensor, a current measure of the temperature and/or the relative humidity within the fuel tank. a conduit comprising a plurality of vents, the conduit defining a path through the fuel tank, the conduit configured to direct a flow of air along the path and out the plurality of vents; at least one sensor configured to measure at least one of temperature and relative humidity within the fuel tank; and a controller comprising a processor, the processor programmed to receive, from the at least one sensor, a current measure of the temperature and/or the relative humidity within the fuel tank.
A method of recycling a substrate support of which one face, called receiving face, is suitable for receiving a substrate designed for at least one step of depositing a layer of a material on said substrate, the depositing step also leading to the deposit of a layer of a material on said substrate support, the method comprising the steps consisting in: a) Implanting ionic species through the receiving face of the substrate support in such a manner as to form at least one buried weakened plane delimiting a thin film under the receiving face of the substrate support, b) Exfoliating the thin film of the substrate support in such a manner as to fragment the thin film, and c) Remove a stacking including at least the layer of a material deposited on the thin film resulting from said at least step of depositing the layer of a material on the substrate. a) Implanting ionic species through the receiving face of the substrate support in such a manner as to form at least one buried weakened plane delimiting a thin film under the receiving face of the substrate support, b) Exfoliating the thin film of the substrate support in such a manner as to fragment the thin film, and c) Remove a stacking including at least the layer of a material deposited on the thin film resulting from said at least step of depositing the layer of a material on the substrate.
Pellet stove comprising a case which is internally provided with a hopper for containing the pellets to feed a brazier below which a pipe is placed, cyclically rotating with respect to its axis to allow disincrustation of the holes of feeding of the combustion air, said pipe having holes formed in its shell for the entry of combustion air aspirated, through a pressure drop, by a flue gas extraction fan, comprising a system of self-cleaning of the brazier defined by said pipe placed in such a way as to define the base of the brazier and determine at least one small gap for the fall of the ashes and of possible incrustations formed on said pipe, characterised by said gap being longitudinally formed between the shell of the pipe and at least one of two opposite walls of the brazier converging as a funnel on the shell of the pipe, said pipe having both ends open for the entry of said air and being totally inside the stove body so that said air undergoes a preheating before coming into contact with the pellets in the brazier, said pellet stove further including a flue gas extraction fan to create a pressure drop aspirating the combustion air from the outside, said pipe being supported in such a way as to be able to rotate around its axis from the sides of the case of the stove.
An LED illumination device comprising: a light emitting diode, LED, light source, wherein an LED central axis is at 0°; and a reflector, wherein the reflector comprises at least four contiguous segments (101, 102, 103, 104); characterized in that at least a portion of light emitted between 0° and +60°, relative to the central axis, from the LED light source is reflected by a first segment of the at least four contiguous segments (101, 102, 103, and 104) of the reflector to angles between - 30° and -50°; wherein at least a portion of the light emitted between -10° and +10°, relative to the central axis, from the LED light source is reflected by a last segment of the at least four contiguous segments (101, 102, 103, and 104) of the reflector to angles between -130° and -160°, wherein the last segment crosses directly in front of the central axis of the LED; wherein at least a portion of the light emitted between -20° and -70°, relative to the central axis, from the LED light source is not reflected by the reflector. a light emitting diode, LED, light source, wherein an LED central axis is at 0°; and a reflector, wherein the reflector comprises at least four contiguous segments (101, 102, 103, 104); characterized in that at least a portion of light emitted between 0° and +60°, relative to the central axis, from the LED light source is reflected by a first segment of the at least four contiguous segments (101, 102, 103, and 104) of the reflector to angles between - 30° and -50°; wherein at least a portion of the light emitted between -10° and +10°, relative to the central axis, from the LED light source is reflected by a last segment of the at least four contiguous segments (101, 102, 103, and 104) of the reflector to angles between -130° and -160°, wherein the last segment crosses directly in front of the central axis of the LED; wherein at least a portion of the light emitted between -20° and -70°, relative to the central axis, from the LED light source is not reflected by the reflector.