mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a photoelectric device, the method comprising: forming a first semiconductor layer (110, 210) on a semiconductor substrate (100, 200) through a first ion implantation; forming a second semiconductor layer (120, 220) having a conductive type inverse to that of the first semiconductor layer in a part of the first semiconductor layer through a second ion implantation; and performing thermal processing to repair lattice damage in the semiconductor substrate and activate dopants implanted by the first and second ion implantations, characterized in that, the first semiconductor layer is in contact with the second semiconductor layer; and the projection range of the dopants projected into a surface of the semiconductor substrate during the second ion implantation is deeper than that of the first ion implantation. forming a first semiconductor layer (110, 210) on a semiconductor substrate (100, 200) through a first ion implantation; forming a second semiconductor layer (120, 220) having a conductive type inverse to that of the first semiconductor layer in a part of the first semiconductor layer through a second ion implantation; and performing thermal processing to repair lattice damage in the semiconductor substrate and activate dopants implanted by the first and second ion implantations,
A myostatin antibody comprising a heavy chain variable region polypeptide of SEQ ID NO: 123 and a light chain variable region polypeptide of SEQ ID NO: 98.
An angular position sensor system (300; 500; 600; 700; 750; 800; 900; 950; 1000; 1050) comprising: - a multi-pole magnetic structure for generating a magnetic field; and - a sensor device movable relative to the magnetic structure about a rotation axis, or vice versa; - the sensor device comprising a plurality of sensor elements configured for measuring at least two magnetic field characteristics, and a processing circuit configured for determining an angular position of the sensor device in accordance with a predefined function of these at least two magnetic field characteristics; characterised in that the sensor device is located such that the sensor elements are located at a radial distance of at least 1.6 mm from said rotation axis; and said magnetic structure comprises a plurality of grooves located at transitions between North poles and South poles, the grooves being located at a planar surface of the magnetic structure and being radially oriented, or being located at a cylindrical surface of the magnetic structure and being axially oriented, the grooves having a cross section having a shape and dimensions defined by a limited set of parameters, these parameters having values chosen such that a maximum position error over a full rotation, between actual angular positions of the sensor device and angular positions determined in accordance with said predefined function, is reduced by at least a factor of 2. - a multi-pole magnetic structure for generating a magnetic field; and - a sensor device movable relative to the magnetic structure about a rotation axis, or vice versa; - the sensor device comprising a plurality of sensor elements configured for measuring at least two magnetic field characteristics, and a processing circuit configured for determining an angular position of the sensor device in accordance with a predefined function of these at least two magnetic field characteristics; the sensor device is located such that the sensor elements are located at a radial distance of at least 1.6 mm from said rotation axis; and said magnetic structure comprises a plurality of grooves located at transitions between North poles and South poles, the grooves being located at a planar surface of the magnetic structure and being radially oriented, or being located at a cylindrical surface of the magnetic structure and being axially oriented, the grooves having a cross section having a shape and dimensions defined by a limited set of parameters, these parameters having values chosen such that a maximum position error over a full rotation, between actual angular positions of the sensor device and angular positions determined in accordance with said predefined function, is reduced by at least a factor of 2.
A vehicle front structure (102;200;300;400;500) comprising: a shutter unit (104;504) comprising adjustable flaps (204,202;302;402;503) arranged to receive an airflow when the vehicle is moving and to control the supply of air that passes through the shutter unit towards at least one vehicle component for cooling the vehicle component, an air duct (208;308;508) extending in a rearward direction from a front part of the vehicle, the air duct comprising an inlet at the front part of the vehicle and an outlet, wherein the inlet and a first flap (202;302;402;502) of the shutter unit are arranged adjacent to each other such that, the vehicle front structure being characterized in that; in a first state of the shutter unit, the first flap is configured to be in a closed state to thereby reduce the supply of air through the shutter unit, and allow an airflow to pass through the inlet of the air duct, and in a second state of the shutter unit, the first flap is configured to be in an open state to thereby increase the supply of air through the shutter unit, and to close the inlet of the air duct to thereby at least partly block the air flow through the air duct. a shutter unit (104;504) comprising adjustable flaps (204,202;302;402;503) arranged to receive an airflow when the vehicle is moving and to control the supply of air that passes through the shutter unit towards at least one vehicle component for cooling the vehicle component, an air duct (208;308;508) extending in a rearward direction from a front part of the vehicle, the air duct comprising an inlet at the front part of the vehicle and an outlet, wherein the inlet and a first flap (202;302;402;502) of the shutter unit are arranged adjacent to each other such that, the vehicle front structure being characterized in that; in a first state of the shutter unit, the first flap is configured to be in a closed state to thereby reduce the supply of air through the shutter unit, and allow an airflow to pass through the inlet of the air duct, and in a second state of the shutter unit, the first flap is configured to be in an open state to thereby increase the supply of air through the shutter unit, and to close the inlet of the air duct to thereby at least partly block the air flow through the air duct.
An integrated device package comprising: a carrier; and an integrated device die mounted to the carrier, the integrated device die comprising a microelectromechanical (MEMS) die comprising a cap formed over the die; characterized in that: the integrated device die further comprises a unitary body comprising a pedestal and first and second overhang regions (9a, 9b), the first and second overhang regions monolithically formed with a proximal end portion of the pedestal, the first overhang region and the second overhang region disposed on opposing sides of the pedestal such that the pedestal is laterally inset from lateral edges of each of the first and second overhang regions, wherein the pedestal comprises a distal portion attached to the carrier; and wherein the pedestal comprises a recess, groove, or opening formed therein. a carrier; and an integrated device die mounted to the carrier, the integrated device die comprising a microelectromechanical (MEMS) die comprising a cap formed over the die; characterized in that: the integrated device die further comprises a unitary body comprising a pedestal and first and second overhang regions (9a, 9b), the first and second overhang regions monolithically formed with a proximal end portion of the pedestal, the first overhang region and the second overhang region disposed on opposing sides of the pedestal such that the pedestal is laterally inset from lateral edges of each of the first and second overhang regions, wherein the pedestal comprises a distal portion attached to the carrier; and wherein the pedestal comprises a recess, groove, or opening formed therein. the integrated device die further comprises a unitary body comprising a pedestal and first and second overhang regions (9a, 9b), the first and second overhang regions monolithically formed with a proximal end portion of the pedestal, the first overhang region and the second overhang region disposed on opposing sides of the pedestal such that the pedestal is laterally inset from lateral edges of each of the first and second overhang regions, wherein the pedestal comprises a distal portion attached to the carrier; and wherein the pedestal comprises a recess, groove, or opening formed therein.
A method of manufacturing a dental component, in particular a dental prosthesis or a partial dental prosthesis, by means of a dental furnace, comprising the following steps: (i) preparing a virtual model (14, 122) of the dental component; (ii) automatically selecting one, two or more programs and/or automatically preparing one, two or more programs and/or preparing one, two or more suggestions for a program for operating the dental furnace on the basis of the virtual model (14, 122) of the dental component; (iii) producing a model of the dental component, wherein the model of the dental component is additively manufactured from a model material on the basis of the virtual model (14, 122) of the dental component, in particular by means of 3D printing; (iv) embedding the model in an investment material; (v) removing the model from the investment material, in particular by heating or burning out, to obtain a negative mold of the model; (vi) inserting a raw material required for manufacturing the dental component into the negative mold; and (vii) producing the dental component in the negative mold in the dental furnace on the basis of the selected, prepared or suggested program. (i) preparing a virtual model (14, 122) of the dental component; (ii) automatically selecting one, two or more programs and/or automatically preparing one, two or more programs and/or preparing one, two or more suggestions for a program for operating the dental furnace on the basis of the virtual model (14, 122) of the dental component; (iii) producing a model of the dental component, wherein the model of the dental component is additively manufactured from a model material on the basis of the virtual model (14, 122) of the dental component, in particular by means of 3D printing; (iv) embedding the model in an investment material; (v) removing the model from the investment material, in particular by heating or burning out, to obtain a negative mold of the model; (vi) inserting a raw material required for manufacturing the dental component into the negative mold; and (vii) producing the dental component in the negative mold in the dental furnace on the basis of the selected, prepared or suggested program.
An article for emitting directed infrared energy, comprising: a nanostructured member including a plurality of nanotubes, the member being configured to emit infrared energy when an electrical current is applied; a reflecting member configured to direct at least a portion of the emitted infrared energy in a desired direction for heating a remotely-situated target; and one or more spacers situated between the nanostructured member and the reflecting member to maintain a predetermined spacing therebetween; characterised in that the one or more spacers have a thickness equal to about one half of a desired wavelength of the infrared radiation to be directed in the desired direction for heating the remotely-situated target. a nanostructured member including a plurality of nanotubes, the member being configured to emit infrared energy when an electrical current is applied; a reflecting member configured to direct at least a portion of the emitted infrared energy in a desired direction for heating a remotely-situated target; and one or more spacers situated between the nanostructured member and the reflecting member to maintain a predetermined spacing therebetween;
Enclosed semiconductor circuit arrangement comprising at least one substrate with conductor tracks and semiconductor components arranged on said conductor tracks in a manner suitable for the circuit, and comprising a connecting device which is arranged above the semiconductor components, composed of a foil composite comprising at least two electrically conductive layers (60, 64) with in each case one insulating layer arranged between them, wherein at least one of the electrically conductive layers (60, 64) is inherently structured and therefore forms conductor tracks, wherein at least one of the electrically conductive layers (60, 64) has first contact devices to connection areas of the semiconductor components, and wherein at least some of these layers and/or a further one of the electrically conductive layers (60, 64) is part of at least one second contact device for reversible connection to an external supply line, wherein the second contact device has at least one spring element with an abutment in the housing or has at least one fixing screw.
A device including a switching voltage regulator for generating an output voltage for use in a wireless communications device, comprising: means for determining a switcher frequency setting value based on a current operating condition, wherein the switcher frequency setting value is based in part on a transmit channel to receive channel frequency separation (Frx-Ftx) during full-duplex mode of operation, wherein the difference between the frequency separation and the nearest integer switcher frequency harmonic to the frequency separation is greater than half the channel bandwidth; a variable clock frequency generating circuit configured to generate a switcher frequency (Fsw) in response to a reference clock frequency signal (REF_CLK) and the switcher frequency setting value; and a switching voltage regulator controller configured to regulate the output voltage in response to the switcher frequency generated by the variable clock frequency generating circuit and a reference voltage, wherein the switching voltage regulator controller compares the output voltage with the reference voltage and adjusts a duty cycle of one or more switches based on a result of the comparison means for determining a switcher frequency setting value based on a current operating condition, wherein the switcher frequency setting value is based in part on a transmit channel to receive channel frequency separation (Frx-Ftx) during full-duplex mode of operation, wherein the difference between the frequency separation and the nearest integer switcher frequency harmonic to the frequency separation is greater than half the channel bandwidth; a variable clock frequency generating circuit configured to generate a switcher frequency (Fsw) in response to a reference clock frequency signal (REF_CLK) and the switcher frequency setting value; and a switching voltage regulator controller configured to regulate the output voltage in response to the switcher frequency generated by the variable clock frequency generating circuit and a reference voltage, wherein the switching voltage regulator controller compares the output voltage with the reference voltage and adjusts a duty cycle of one or more switches based on a result of the comparison
Improved pylon, intended to be mounted on a carrying platform for carrying a load,wherein said pylon comprises electronic equipment, housed inside a fairing of the pylon and comprising a computer (29, 35), an internal interface adapted to establish a communication link between the electronic equipment and a data bus (31, 33) of the carrier platform and/or of the load, and communication means (37, 36, 38, 36) adapted to establish a wireless communication link with transmitter-receiver means of a collaborative air combat infrastructure, the computer being programmed to contribute to operational services on the basis of the data exchanged with the carrier platform and/or the load and in cooperation with the collaborative air combat infrastructure.
A regenerated elastic roller manufacturing process comprising the step of removing an agglutinated stain of a developer origin adhered to the surface of an elastic roller, said roller provided with a mandrel and an elastic layer (22, 23), wherein said step comprises: pressing a pressing roller against the surface of the elastic roller so as to crack the agglutinated stain on the surface of the elastic roller; and removing the agglutinated stain cracked in the step from the surface of the elastic roller by means of an adhesive roller; characterized in that said process further comprises, prior to the steps and, a step in which the agglutinated stain is kept at a temperature of -10°C or more and 10°C or less. pressing a pressing roller against the surface of the elastic roller so as to crack the agglutinated stain on the surface of the elastic roller; and removing the agglutinated stain cracked in the step from the surface of the elastic roller by means of an adhesive roller;
Automatic winding system comprising: ∘ An oscillating weight pivoting on an axis, ∘ a unidirectional carrier system comprising an entry, on which the oscillating weight is firmly fixed, and an exit arranged to be driven by the entry in only one direction, ∘ a reducer kinematically linking the exit of the unidirectional carrier system to the ratchet of a barrel, and comprising a first wheel driven, via said outlet, in an eccentric manner around said axis, and comprising an exterior toothing of N1 teeth, characterised in that the said reducer further comprises: ∘ a second directional wheel fitted with an interior toothing of N2 teeth, with N2>N1 and with an external toothing linked kinematically to said ratchet, ∘ means of guidance set up so that said first wheel rolls without sliding on the interior toothing of the second wheel. ∘ An oscillating weight pivoting on an axis, ∘ a unidirectional carrier system comprising an entry, on which the oscillating weight is firmly fixed, and an exit arranged to be driven by the entry in only one direction, ∘ a reducer kinematically linking the exit of the unidirectional carrier system to the ratchet of a barrel, and comprising a first wheel driven, via said outlet, in an eccentric manner around said axis, and comprising an exterior toothing of N1 teeth, characterised in that the said reducer further comprises: ∘ a second directional wheel fitted with an interior toothing of N2 teeth, with N2>N1 and with an external toothing linked kinematically to said ratchet, ∘ means of guidance set up so that said first wheel rolls without sliding on the interior toothing of the second wheel. ∘ a second directional wheel fitted with an interior toothing of N2 teeth, with N2>N1 and with an external toothing linked kinematically to said ratchet, ∘ means of guidance set up so that said first wheel rolls without sliding on the interior toothing of the second wheel.
A straddle-type vehicle comprising a front structure, said front structure comprising: a suspension supported by a support shaft installed between a pair of left and right arms of the straddle-type vehicle while being disposed at a position behind a steering shaft of the straddle-type vehicle and above a power source of the straddle-type vehicle; and characterized by a cover configured to cover a space between the pair of left and right arms between the steering shaft and the suspension. a suspension supported by a support shaft installed between a pair of left and right arms of the straddle-type vehicle while being disposed at a position behind a steering shaft of the straddle-type vehicle and above a power source of the straddle-type vehicle; and characterized by a cover configured to cover a space between the pair of left and right arms between the steering shaft and the suspension.
Heating/cooling system manifold comprising a sleeve having two openings (3, 4) in a wall and fixing means having a connection geometry (6, 29, 30), characterized in that presetting means of the system are mounted to the sleeve by means of the fixing means, the fixing means comprising at least two parts (7, 8) which form a closed assembly around the sleeve, are mounted on opposite sides of a circumference of the sleeve, and are connected, wherein a functional part of the presetting means is mounted movably to the fixing means.
Radiation tomography apparatus comprising: a detector ring formed by arranging two or more ring units (121, 122a, 122b) as to share a central axis of the two or more ring units (121, 122a, 122b), the two or more ring units (121, 122a, 122b) each being formed by arranging unit detector rings having radiation detecting elements for detecting radiation arranged annularly as to share a central axis of the unit detector rings; a direct coincidence device configured to count a number of coincidence events as a number of times that two different radiation detecting elements belonging to the same one of the two or more ring units (121, 122a, 122b) detect radiation coincidently; a cross coincidence device that is connected to both a first ring unit and a second ring unit (122a, 122b) of the two or more ring units (121, 122a, 122b), the first ring unit and the second ring unit being adjacent to each other, and counts a number of coincidence events as a number of times that two different radiation detecting elements belonging to each of the first ring unit and the second ring unit (122a, 122b) detect radiation coincidently only when a distance between two radiation detecting elements in a direction of the central axis is equal to or less than a given length; a given length storage device for storing the given length; and an input device for inputting the given length, the given length being variable in accordance with input by the input device. a detector ring formed by arranging two or more ring units (121, 122a, 122b) as to share a central axis of the two or more ring units (121, 122a, 122b), the two or more ring units (121, 122a, 122b) each being formed by arranging unit detector rings having radiation detecting elements for detecting radiation arranged annularly as to share a central axis of the unit detector rings; a direct coincidence device configured to count a number of coincidence events as a number of times that two different radiation detecting elements belonging to the same one of the two or more ring units (121, 122a, 122b) detect radiation coincidently; a cross coincidence device that is connected to both a first ring unit and a second ring unit (122a, 122b) of the two or more ring units (121, 122a, 122b), the first ring unit and the second ring unit being adjacent to each other, and counts a number of coincidence events as a number of times that two different radiation detecting elements belonging to each of the first ring unit and the second ring unit (122a, 122b) detect radiation coincidently only when a distance between two radiation detecting elements in a direction of the central axis is equal to or less than a given length; a given length storage device for storing the given length; and an input device for inputting the given length, the given length being variable in accordance with input by the input device.