mhurhangee/ep-ind-claims huggingface dataset:
A method for continuously supplying a drop of a molding material into a rotating molding die in a rotary compression molding machine which is a method for supplying a drop in molding die follow-up manner, wherein a holding mechanism of the drop on a rotary-and movable type drop supply is made to approach the rotating molding die and a rotation path of the holding mechanism is made to overlap or nearly overlap with that of the rotating molding die within a determined area and the movement of the rotating molding die is made to follow that of the holding mechanism, or the movement of the holding mechanism is made to follow that of the rotating molding die within a determined area, and the holding of the drop held and conveyed by the holding mechanism is released on the overlapped or nearly overlapped rotary path, to insert the drop into a concave of the molding die for supply, and wherein the rotation path of the rotating molding die is a circular path and the holding mechanism varies a rotation radius or oscillates in the overlapped or nearly overlapped rotary path such that a portion of the rotation path of holding mechanism elastically conforms to circular path of the moulding die.
A resin microparticle production method, comprising: a step of pulverizing resin particles of a thermoplastic resin having a BET specific surface area of equal to or more than 5 m 2 /g using an impact type pulverizer, wherein the thermoplastic resin has an aromatic group in a main chain, wherein a median particle diameter D 50 of the resin particles is equal to or more than 200 μm, and wherein a median particle diameter D 50 of the resin microparticle is 10 μm to 100 μm, wherein the median particle diameter D 50 and the BET specific surface area are measured as described in the description. a step of pulverizing resin particles of a thermoplastic resin having a BET specific surface area of equal to or more than 5 m 2 /g using an impact type pulverizer, wherein the thermoplastic resin has an aromatic group in a main chain, wherein a median particle diameter D 50 of the resin particles is equal to or more than 200 μm, and wherein a median particle diameter D 50 of the resin microparticle is 10 μm to 100 μm, wherein the median particle diameter D 50 and the BET specific surface area are measured as described in the description.
A solid state radiation detector comprising: a Schottky diode having an active semiconductor region and a Schottky contact over at least a portion of the active semiconductor region; characterized by: a layer of a Compton and photoelectron source material that reacts with incident gamma radiation to interact with electrons surrounding source atoms of the source material to produce high energy Compton and photoelectric electrons to penetrate into the active region of the Schottky diode through the Schottky contact, the layer of the Compton and photoelectron source material being supported above the Schottky contact; and a layer of a fluid that will vary the energy of the Compton and photoelectric electrons that penetrate into the active region as a function of the thickness of the layer of the fluid, interposed between the Schottky contact and the layer of the Compton and photoelectron source material, so that the electrons that are released by the layer of the Compton and photoelectron source material contribute to the collection of charge particles in the active region. a Schottky diode having an active semiconductor region and a Schottky contact over at least a portion of the active semiconductor region; a layer of a Compton and photoelectron source material that reacts with incident gamma radiation to interact with electrons surrounding source atoms of the source material to produce high energy Compton and photoelectric electrons to penetrate into the active region of the Schottky diode through the Schottky contact, the layer of the Compton and photoelectron source material being supported above the Schottky contact; and a layer of a fluid that will vary the energy of the Compton and photoelectric electrons that penetrate into the active region as a function of the thickness of the layer of the fluid, interposed between the Schottky contact and the layer of the Compton and photoelectron source material, so that the electrons that are released by the layer of the Compton and photoelectron source material contribute to the collection of charge particles in the active region.
Normally closed high electron mobility heterojunction transistor, comprising: - a first GaN layer; - a second, p-doped GaN layer formed on top of the first GaN layer, this second GaN layer including magnesium forming a p-type dopant, the concentration of magnesium in the second GaN layer being at least equal to 5 * 10 16 cm -3 and at most equal to 2 * 10 18 cm -3, the thickness of said second GaN layer being between 20 and 50 nm; - a third, n-doped GaN layer formed on top of the second GaN layer so as to form a fully depleted p-n junction; - a fourth GaN layer, which is not intentionally doped, formed on top of the third GaN layer; - a semiconductor layer formed plumb with the fourth GaN layer, which is not intentionally doped, in order to form an electron gas layer at the interface between the semiconductor layer and the fourth GaN layer; - a control gate formed on the semiconductor layer. - a first GaN layer; - a second, p-doped GaN layer formed on top of the first GaN layer, this second GaN layer including magnesium forming a p-type dopant, the concentration of magnesium in the second GaN layer being at least equal to 5 * 10 16 cm -3 and at most equal to 2 * 10 18 cm -3, the thickness of said second GaN layer being between 20 and 50 nm; - a third, n-doped GaN layer formed on top of the second GaN layer so as to form a fully depleted p-n junction; - a fourth GaN layer, which is not intentionally doped, formed on top of the third GaN layer; - a semiconductor layer formed plumb with the fourth GaN layer, which is not intentionally doped, in order to form an electron gas layer at the interface between the semiconductor layer and the fourth GaN layer; - a control gate formed on the semiconductor layer.
System for processing lengths of tubing, comprising a transport device for transporting lengths of tubing, at least one processing station, with at least one processing means for processing the lengths of tubing, and at least one positioning element for positioning the processing means relative to the lengths of tubing to be processed, characterised in that the positioning element is electrically controllable and the processing means is positionable relative to the lengths of tubing by the at least one positioning element in order to compensate for a malpositioning of lengths of tubing before and/or during the processing of the malpositioned lengths of tubing, wherein a detection unit for recording data for determining an actual positioning of lengths of tubing, a processing unit for determining a deviation of an actual positioning from a target positioning of lengths of tubing and a controller for controlling a positioning element are provided in order to compensate for a deviation of an actual positioning from a target positioning before and/or during the processing of malpositioned lengths of tubing. the positioning element is electrically controllable and the processing means is positionable relative to the lengths of tubing by the at least one positioning element in order to compensate for a malpositioning of lengths of tubing before and/or during the processing of the malpositioned lengths of tubing, wherein a detection unit for recording data for determining an actual positioning of lengths of tubing, a processing unit for determining a deviation of an actual positioning from a target positioning of lengths of tubing and a controller for controlling a positioning element are provided in order to compensate for a deviation of an actual positioning from a target positioning before and/or during the processing of malpositioned lengths of tubing.
A method of transmitting a signal of a base station (11, 50) using a subframe comprising a transmission period and a guard time for transmission/reception switching of a relay station in a wireless communication system, the method comprising: transmitting resource allocation information to a macro user equipment; transmitting a first signal to the relay station through the transmission period; and transmitting a second signal to the macro user equipment through the guard time, characterized in that the second signal is mapped to resource elements belonging to the guard time by a first mapping method or a second mapping method, and the resource allocation information informs the macro user equipment about which method is used for the second signal in the first mapping method and the second method. transmitting resource allocation information to a macro user equipment; transmitting a first signal to the relay station through the transmission period; and transmitting a second signal to the macro user equipment through the guard time, characterized in that the second signal is mapped to resource elements belonging to the guard time by a first mapping method or a second mapping method, and the resource allocation information informs the macro user equipment about which method is used for the second signal in the first mapping method and the second method.
Apparatus for transmitting location based messages from vehicles to a stationary infrastructure (14, 16), comprising at least one transponder installed on a vehicle, at least one stationary base in the form of a transceiver for exchanging signals with the transponder, a device for measuring run times of the signals and for calculating the distance between the base and the transponder, and an evaluation system for evaluating the messages contained in the signals from the transponder on the basis of the calculated distance, characterized in that the transponder is adapted to send to the base an actuation command to change the shift position of points in the stationary infrastructure, and the evaluation system is configured to compare the calculated distance to distance values that specify a predetermined zone along the route of the vehicle and to transmit the actuating command further to the stationary infrastructure if the vehicle moves towards the points and if the measured distance is within the distance range that is specified by a start point and an end point of the zone and otherwise to reject the actuation command.
A multi-beam antenna system for a spacecraft, the multi-beam antenna system comprising: a reflector; and a plurality of radiating feed elements, configured as a phased array, illuminating the reflector, configured to operate at a frequency having a characteristic wavelength, the feed elements being configured to produce, in a far field at the reflector, a set of contiguous abutting beams; wherein each radiating feed element is coupled with and disposed proximate to a respective amplifier module, wherein each radiating feed element is configured to form a respective beamlet; and wherein each radiating feed element, together with its respective amplifier module, is disposed in a closely packed triangular lattice, wherein each respective beamlet has a beamlet width in the far field, the beamlet width being a function of the characteristic wavelength and a diameter of the reflector; and wherein the multi-beam antenna system is configured such that the beamlets have a beamlet spacing in the far field; characterized in that the beamlet width is approximately 0.1 degree in a 20GHz band, and the beamlet spacing is less than the beamlet width; and wherein the separation between adjacent radiating feed elements is not greater than 2λ. a reflector; and a plurality of radiating feed elements, configured as a phased array, illuminating the reflector, configured to operate at a frequency having a characteristic wavelength, the feed elements being configured to produce, in a far field at the reflector, a set of contiguous abutting beams; wherein each radiating feed element is coupled with and disposed proximate to a respective amplifier module, wherein each radiating feed element is configured to form a respective beamlet; and wherein each radiating feed element, together with its respective amplifier module, is disposed in a closely packed triangular lattice, wherein each respective beamlet has a beamlet width in the far field, the beamlet width being a function of the characteristic wavelength and a diameter of the reflector; and wherein the multi-beam antenna system is configured such that the beamlets have a beamlet spacing in the far field; characterized in that the beamlet width is approximately 0.1 degree in a 20GHz band, and the beamlet spacing is less than the beamlet width; and wherein the separation between adjacent radiating feed elements is not greater than 2λ.
A computer-implemented method for detecting a metric of a device, comprising: executing an application using an application processor included in the device; registering the application as a listener with a sensor processor; extracting a listener parameter from the application in response to the application registering as a listener, wherein extracting comprises interrogating, by the sensor processor, the application to determine the listener parameter, the listener parameter comprising data indicative of a condition for satisfying a triggering event; acquiring raw sensor readings from one or more sensors (210A-D) included in the device, using the sensor processor included in the device, wherein the sensor processor and the application processor are distinct from one another; determining, using the sensor processor, a processed sensor metric from the raw sensor readings; determining when the triggering event is satisfied; and in response to determining that the triggering event is satisfied, transmitting the processed sensor metric to the application processor executing the application. executing an application using an application processor included in the device; registering the application as a listener with a sensor processor; extracting a listener parameter from the application in response to the application registering as a listener, wherein extracting comprises interrogating, by the sensor processor, the application to determine the listener parameter, the listener parameter comprising data indicative of a condition for satisfying a triggering event; acquiring raw sensor readings from one or more sensors (210A-D) included in the device, using the sensor processor included in the device, wherein the sensor processor and the application processor are distinct from one another; determining, using the sensor processor, a processed sensor metric from the raw sensor readings; determining when the triggering event is satisfied; and in response to determining that the triggering event is satisfied, transmitting the processed sensor metric to the application processor executing the application.
A multi-mode near-field device, configured to be coupled to a conductive host surface, comprising: a conductive antenna surface configured as a near-field electrically inductive, NFEI, antenna; wherein the conductive antenna surface includes a first region and a second region; wherein the first region is configured to be capacitively coupled to the conductive host surface; wherein the second region is configured to be galvanically or capacitively coupled to the conductive host surface; wherein the multi-mode device is configured to operate in: a first mode when the second region is galvanically coupled to the conductive host surface; and a second mode when the second region is capacitively coupled to the conductive host surface; characterized in that: the multi-mode near-field device is a game controller; and in that the game controller is configured to be in the first mode prior to pairing the game controller with a first user and in the second mode after pairing the game controller with a first user. a conductive antenna surface configured as a near-field electrically inductive, NFEI, antenna; wherein the conductive antenna surface includes a first region and a second region; wherein the first region is configured to be capacitively coupled to the conductive host surface; wherein the second region is configured to be galvanically or capacitively coupled to the conductive host surface; wherein the multi-mode device is configured to operate in: a first mode when the second region is galvanically coupled to the conductive host surface; and a second mode when the second region is capacitively coupled to the conductive host surface; characterized in that: the multi-mode near-field device is a game controller; and in that a first mode when the second region is galvanically coupled to the conductive host surface; and a second mode when the second region is capacitively coupled to the conductive host surface; characterized in that: the multi-mode near-field device is a game controller; and in that the game controller is configured to be in the first mode prior to pairing the game controller with a first user and in the second mode after pairing the game controller with a first user.
A system comprising: a circumferential collar or partially circumferential collar open at a front side to accommodate a laryngeal prominence of a human subject, wherein the collar (102, 113) is adapted to be worn on a neck of the human subject; and a shirt or jersey (137, 147) comprising a neck opening with a circumferential flap, or partially circumferential flap open at a front side to accommodate the laryngeal prominence; wherein the circumferential or partially circumferential collar (102, 113) comprises inwardly-directed protuberances positioned and adapted to apply sufficient pressure to one or more neck veins of the subject to restrict blood flow egressing from a head of the subject through the one or more neck veins; and wherein the flap is adapted to fold over and conceal the collar (102, 113). a circumferential collar or partially circumferential collar open at a front side to accommodate a laryngeal prominence of a human subject, wherein the collar (102, 113) is adapted to be worn on a neck of the human subject; and a shirt or jersey (137, 147) comprising a neck opening with a circumferential flap, or partially circumferential flap open at a front side to accommodate the laryngeal prominence; wherein the circumferential or partially circumferential collar (102, 113) comprises inwardly-directed protuberances positioned and adapted to apply sufficient pressure to one or more neck veins of the subject to restrict blood flow egressing from a head of the subject through the one or more neck veins; and wherein the flap is adapted to fold over and conceal the collar (102, 113).
An electric parking brake, comprising: an electric motor which is connected through a speed reduction mechanism to a linear motion mechanism;and a friction member mounted to the linear motion mechanism and configured to be pressed against a brake disk by rotating the motor, thereby generating a braking force, wherein with the braking force generated, an engaging member is configured to be moved to an engaged position where the engaging member is engaged in one of the linear motion mechanism and the speed reduction mechanism by means of a solenoid, and characterized in that the electric parking brake further comprises a monitoring means configured to detect a displacement as a change of position of a plunger of the solenoid by detecting inductances of the solenoid that correspond to positions of the plunger of the solenoid, and monitor a behavior of the engaging member based on the detected displacement. an electric motor which is connected through a speed reduction mechanism to a linear motion mechanism;and a friction member mounted to the linear motion mechanism and configured to be pressed against a brake disk by rotating the motor, thereby generating a braking force, wherein with the braking force generated, an engaging member is configured to be moved to an engaged position where the engaging member is engaged in one of the linear motion mechanism and the speed reduction mechanism by means of a solenoid, and characterized in that the electric parking brake further comprises a monitoring means configured to detect a displacement as a change of position of a plunger of the solenoid by detecting inductances of the solenoid that correspond to positions of the plunger of the solenoid, and monitor a behavior of the engaging member based on the detected displacement.
Use of a polymeric corrosion inhibitor or of a mixture which comprises at least one polymeric corrosion inhibitor, of the formula (R 1) a A(R 2 X) b, where a = 0 − 3, b = 1 − 5, A is a bridging structural unit, R 1, identically or differently, is H or an aliphatic, aromatic, olefinic, cyclic, heterocyclic, polycyclic or polyheterocyclic radical, R 2, identically or differently, is a polymeric framework, the polymeric framework R 2 having ethoxy, propoxy, butoxy units or mixtures of these units, X, identically or differently, is a functional group selected from the group consisting of amides and imides of carboxylic acids, dicarboxylic acids and polycarboxylic acids, the molar mass of the polymer is between 200 and 10 000, preferably 400 and 6000; as corrosion inhibitor for the surface of anodized metals selected from the group consisting of aluminium, titanium, vanadium and also alloys of the aforesaid metals. a = 0 − 3, b = 1 − 5, A is a bridging structural unit, R 1, identically or differently, is H or an aliphatic, aromatic, olefinic, cyclic, heterocyclic, polycyclic or polyheterocyclic radical, R 2, identically or differently, is a polymeric framework, the polymeric framework R 2 having ethoxy, propoxy, butoxy units or mixtures of these units, X, identically or differently, is a functional group selected from the group consisting of amides and imides of carboxylic acids, dicarboxylic acids and polycarboxylic acids, the molar mass of the polymer is between 200 and 10 000, preferably 400 and 6000; as corrosion inhibitor for the surface of anodized metals selected from the group consisting of aluminium, titanium, vanadium and also alloys of the aforesaid metals.
An electric power tool including: a final output shaft that protrudes forward of a housing accommodating a motor and to which rotation is transmitted from the motor; a plurality of operation mechanisms (9, 90) for operating the final output shaft in a plurality of operation modes comprising a first predetermined operation mode; a mode switching member that enables a selecting operation for the operation mode; a transmission mechanism that enables switching of rotation speed of the final output shaft between two stages of high and low; and a speed switching member that enables a selecting operation for the rotation speed; and a link unit (63, 88A, 88B, 136, 138, 137, 139) that is provided between the mode switching member and the speed switching member and that is adapted to cause a switching operation of the speed switching member to a high-speed side in coordination with the selecting operation of the mode switching member to the first predetermined operation mode so as to hold the rotation speed at high speed, characterized in that the link unit is adapted to restrict movement of the speed switching member in coordination with the selecting operation of the mode switching member to the first predetermined operation mode.