mhurhangee/ep-ind-claims huggingface dataset:
Bone plate internal fixator device (101; 501; 701) for epiphysiodesis, comprising a pair of holding elements (102, 103; 502, 503; 702, 703), each one of said holding elements (102, 103; 502, 503; 702, 703) respectively comprising a through hole (104, 105; 504, 505; 704, 705) configured for receiving a respective fixing screw to a bone; said bone plate internal fixator device (101; 501; 701) further comprising a central portion (106; 506; 706) which structurally connects and constrains said holding elements (102, 103; 502, 503; 702, 703) with each other, said central portion (106; 506; 706) being flexible so as to allow flexing of said bone plate (101; 501; 701) and angular opening of said bone plate (101; 501; 701) during evolution of the epiphysiodesis surgery, wherein said flexing of said bone plate further allows a relative flexing between said holding elements (102, 103; 502, 503; 702, 703), characterized in that said central portion (506; 706) comprises at least one bridge element (510a, 510b; 710, 710b) made of flexible plastic material, in that said holding elements (502, 503) are made of said flexible plastic material in a piece with said at least one bridge element (510a, 510b), and in that the fixing screws always remain co-planar to a plane which encompasses a flexing angle, the axis of each fixing screw remaining substantially perpendicular to the respective holding element (102, 103; 502, 503; 702, 703). said central portion (106; 506; 706) being flexible so as to allow flexing of said bone plate (101; 501; 701) and angular opening of said bone plate (101; 501; 701) during evolution of the epiphysiodesis surgery, wherein said flexing of said bone plate further allows a relative flexing between said holding elements (102, 103; 502, 503; 702, 703), characterized in that said central portion (506; 706) comprises at least one bridge element (510a, 510b; 710, 710b) made of flexible plastic material, in that said holding elements (502, 503) are made of said flexible plastic material in a piece with said at least one bridge element (510a, 510b), and in that the fixing screws always remain co-planar to a plane which encompasses a flexing angle, the axis of each fixing screw remaining substantially perpendicular to the respective holding element (102, 103; 502, 503; 702, 703).
An optical sensor module, for being arranged in an electronic device with a display panel and under the display panel to capture a fingerprint pattern of a finger above the display panel, the optical sensor module comprising: an optical sensor array of optical detectors for converting returned light carrying fingerprint information into detector signals representing a fingerprint pattern, wherein the returned light is generated when the finger is illuminated, and is transmitted through the display panel; a pinhole layer located above the optical sensor array, the pinhole layer comprising a pinhole substrate and a pinhole structure with a pinhole for collecting the returned light and to transmit the returned light towards the optical sensor array; optical layers located above the pinhole layer, the optical layers are structured to produce a large optical field of view in collecting the returned light from the display panel, the optical layers comprise an optically transparent spacer with a refractive index lower than that of the pinhole layer wherein the optically transparent spacer is provided between the pinhole layer and the display panel; and a lens unit located between the pinhole layer and the optical sensor array, the lens unit being configured to receive the returned light from the pinhole and to focus the returned light onto the optical sensor array for optical imaging at an enhanced spatial imaging resolution when focusing the returned light onto the optical sensor array. an optical sensor array of optical detectors for converting returned light carrying fingerprint information into detector signals representing a fingerprint pattern, wherein the returned light is generated when the finger is illuminated, and is transmitted through the display panel; a pinhole layer located above the optical sensor array, the pinhole layer comprising a pinhole substrate and a pinhole structure with a pinhole for collecting the returned light and to transmit the returned light towards the optical sensor array; optical layers located above the pinhole layer, the optical layers are structured to produce a large optical field of view in collecting the returned light from the display panel, the optical layers comprise an optically transparent spacer with a refractive index lower than that of the pinhole layer wherein the optically transparent spacer is provided between the pinhole layer and the display panel; and a lens unit located between the pinhole layer and the optical sensor array, the lens unit being configured to receive the returned light from the pinhole and to focus the returned light onto the optical sensor array for optical imaging at an enhanced spatial imaging resolution when focusing the returned light onto the optical sensor array.
Lonafarnib and ritonavir for use in the treatment of hepatitis delta virus infection in a human patient, wherein the lonafarnib is orally administered at a dose of 25 mg BID and the ritonavir is orally administered at a total daily dose in the range of 100 mg to 200 mg, wherein the lonafarnib and the ritonavir are administered as a co-therapy to the patient, and wherein the patient has a baseline viral load of at least 10 4 HDV RNA copies per mL serum before the initiation of treatment.
A method for using motion to reduce scans for local wireless networks, comprising: determining whether or not a motion state change event of a user device indicates a change from a moving motion state to a stationary motion state; and based on the motion state change event indicating a change from a moving motion state to a stationary motion state and a difference between a time of the motion state change event and a time of a previous motion state change event being less than a cutoff threshold, ignoring the motion state change event, wherein ignoring the motion state change event comprises suppressing scanning for a local wireless network. determining whether or not a motion state change event of a user device indicates a change from a moving motion state to a stationary motion state; and based on the motion state change event indicating a change from a moving motion state to a stationary motion state and a difference between a time of the motion state change event and a time of a previous motion state change event being less than a cutoff threshold, ignoring the motion state change event, wherein ignoring the motion state change event comprises suppressing scanning for a local wireless network.
An electromagnet device comprising: a spool comprising a guard portion at at least one end, a coil being wound around a body portion of the spool; and a coil terminal press-fitted in the guard portion, wherein a lead wire of the coil is tied up to a tying-up portion of the coil terminal, and wherein the tying-up portion is folded toward the guard portion of the spool with the lead wire of the coil being tied up to the tying-up portion extending in a direction perpendicular to a lengthwise direction of the spool, characterized in that the guard portion of the spool is provided with, on both sides of the coil being wound, at least one inclined surface (23a, 23b) inclined toward the coil terminal and the lead wire of the coil tied up to the tying-up portion is drawn out along the inclined surface (23a, 23b). a spool comprising a guard portion at at least one end, a coil being wound around a body portion of the spool; and a coil terminal press-fitted in the guard portion, wherein a lead wire of the coil is tied up to a tying-up portion of the coil terminal, and wherein the tying-up portion is folded toward the guard portion of the spool with the lead wire of the coil being tied up to the tying-up portion extending in a direction perpendicular to a lengthwise direction of the spool, characterized in that the guard portion of the spool is provided with, on both sides of the coil being wound, at least one inclined surface (23a, 23b) inclined toward the coil terminal and the lead wire of the coil tied up to the tying-up portion is drawn out along the inclined surface (23a, 23b).
A method for wireless communication by a User Equipment, UE, comprising: receiving scheduling for at least one of first uplink transmissions according to a first Transmission Time Interval, TTI, or second uplink transmissions according to a second TTI, wherein the second TTI has a shortened duration relative to the first TTI; determining a configuration for performing power headroom, PHR, reporting for the first TTI and for performing PHR reporting for the second TTI, wherein the configuration involves separate periodic and prohibit timers for PHR reporting for the first and second TTIs; and performing PHR reporting according to the determination and based on a collision between transmissions scheduled for the first TTI and the second TTI, wherein performing PHR reporting according to the determination comprises: dropping a PHR transmission for the first TTI due to the collision with transmission for the second TTI; stopping a prohibit timer for PHR for the first TTI when an earlier PHR transmission for the first TTI is dropped due to the collision with transmission for the second TTI; and sending the dropped PHR transmission in the second TTI. receiving scheduling for at least one of first uplink transmissions according to a first Transmission Time Interval, TTI, or second uplink transmissions according to a second TTI, wherein the second TTI has a shortened duration relative to the first TTI; determining a configuration for performing power headroom, PHR, reporting for the first TTI and for performing PHR reporting for the second TTI, wherein the configuration involves separate periodic and prohibit timers for PHR reporting for the first and second TTIs; and performing PHR reporting according to the determination and based on a collision between transmissions scheduled for the first TTI and the second TTI, wherein performing PHR reporting according to the determination comprises: dropping a PHR transmission for the first TTI due to the collision with transmission for the second TTI; stopping a prohibit timer for PHR for the first TTI when an earlier PHR transmission for the first TTI is dropped due to the collision with transmission for the second TTI; and sending the dropped PHR transmission in the second TTI. dropping a PHR transmission for the first TTI due to the collision with transmission for the second TTI; stopping a prohibit timer for PHR for the first TTI when an earlier PHR transmission for the first TTI is dropped due to the collision with transmission for the second TTI; and sending the dropped PHR transmission in the second TTI.
An imaging apparatus comprising: a plurality of photoelectric conversion units each configured to output an image signal and a noise signal; drive means configured to execute a first reading drive for reading a noise signal from each of the plurality of photoelectric conversion units and a second reading drive for reading a noise signal and a corresponding image signal from each of the plurality of photoelectric conversion units after the first reading drive is executed; clipping level control means (109, 111) configured to calculate an estimated maximum value of the noise signal which can be obtained by the second reading drive based on a maximum value of the noise signal obtained by the first reading drive, and determine a clipping level based on the estimated maximum value; clipping means configured to clip each noise signal to the clipping level; and processing means configured to subtract the noise signal, which was clipped by the clipping means, from an image signal obtained by the second reading drive. a plurality of photoelectric conversion units each configured to output an image signal and a noise signal; drive means configured to execute a first reading drive for reading a noise signal from each of the plurality of photoelectric conversion units and a second reading drive for reading a noise signal and a corresponding image signal from each of the plurality of photoelectric conversion units after the first reading drive is executed; clipping level control means (109, 111) configured to calculate an estimated maximum value of the noise signal which can be obtained by the second reading drive based on a maximum value of the noise signal obtained by the first reading drive, and determine a clipping level based on the estimated maximum value; clipping means configured to clip each noise signal to the clipping level; and processing means configured to subtract the noise signal, which was clipped by the clipping means, from an image signal obtained by the second reading drive.
A light scanning unit comprising an optical system having: a light source for emitting a light beam; an optical deflector for deflecting and scanning the light beam emitted from the light source in a main scanning direction; a first optical unit consisting of a single lens, being disposed between the light source and the optical deflector, and being arranged to collimate the light beam emitted from the light source in the main scanning direction and if being arranged to focus the light beam onto a reflection surface of the optical deflector in a sub scanning direction; and a second optical unit comprising at least one lens and for imaging the light beam deflected and scanned by the optical deflector onto a scanning target surface; characterized in that: the following two expressions are satisfied: βm > βs, and 0.05 < βs / βm 2 < 0.5 where, βm represents the optical system's magnification in the main scanning direction, and βs represents the optical system's magnification in the sub scanning direction. a light source for emitting a light beam; an optical deflector for deflecting and scanning the light beam emitted from the light source in a main scanning direction; a first optical unit consisting of a single lens, being disposed between the light source and the optical deflector, and being arranged to collimate the light beam emitted from the light source in the main scanning direction and if being arranged to focus the light beam onto a reflection surface of the optical deflector in a sub scanning direction; and a second optical unit comprising at least one lens and for imaging the light beam deflected and scanned by the optical deflector onto a scanning target surface; the following two expressions are satisfied: βm > βs, and 0.05 < βs / βm 2 < 0.5 where, βm represents the optical system's magnification in the main scanning direction, and βs represents the optical system's magnification in the sub scanning direction.
The use of a composition comprising (a) 0.1 to 40% by weight of surface-modified nanoparticles selected from the group consisting of silicon dioxide, zinc oxide and aluminum oxide, wherein the surface modification is brought about by means of surface-modifying reagents selected from alkyl-, aryl- and alkylarylsilanes having at least 1 to 3 of these alkyl, aryl and alkylaryl groups which may additionally contain functional groups, especially thio groups, phosphate groups, and which are used individually or in combination, and wherein the additional functional groups can react with metal surfaces and (b) 99.9 to 60% by weight a carrier material selected from the group consisting of synthetic and native ester oils, polyglycols, synthetic hydrocarbon oils wherein the composition is applied to the surfaces of drive elements for prevention or reduction of fatigue damage, trench formation or micropitting. (a) 0.1 to 40% by weight of surface-modified nanoparticles selected from the group consisting of silicon dioxide, zinc oxide and aluminum oxide, wherein the surface modification is brought about by means of surface-modifying reagents selected from alkyl-, aryl- and alkylarylsilanes having at least 1 to 3 of these alkyl, aryl and alkylaryl groups which may additionally contain functional groups, especially thio groups, phosphate groups, and which are used individually or in combination, and wherein the additional functional groups can react with metal surfaces and (b) 99.9 to 60% by weight a carrier material selected from the group consisting of synthetic and native ester oils, polyglycols, synthetic hydrocarbon oils
A state notification apparatus comprising: a holding unit that, when one or more secure runtime environments and one or more non-secure runtime environments are selectively executed in a foreground, holds an identifier of the runtime environment that is being executed in the foreground; a determination unit that determines a state of the runtime environment executed in the foreground based on the identifier held by the holding unit; and a notification unit that causes a hardware device that cannot be accessed from the one or more non-secure runtime environments to notify the state determined by the determination unit to a user. a holding unit that, when one or more secure runtime environments and one or more non-secure runtime environments are selectively executed in a foreground, holds an identifier of the runtime environment that is being executed in the foreground; a determination unit that determines a state of the runtime environment executed in the foreground based on the identifier held by the holding unit; and a notification unit that causes a hardware device that cannot be accessed from the one or more non-secure runtime environments to notify the state determined by the determination unit to a user.
A method for stimulation of plant growth, which method comprises simultaneously illuminating the plants with near infrared light and white light emitted by one or more LED elements, characterized in that the radiant output on the LED elements with near infrared radiation ranges from 840 nm to 960 nm, and wherein radiant output of the near infrared LED elements is between 5 and 25% of total radiant output. the radiant output on the LED elements with near infrared radiation ranges from 840 nm to 960 nm, and wherein radiant output of the near infrared LED elements is between 5 and 25% of total radiant output.
System for transporting objects under controlled atmosphere comprising at least two sections (T1, T2, T3, T4), each section comprising a first end and a second end, said at least two sections (T1, T2, T3, T4) being connected together in a leak tight manner by their ends, each section (T1, T2, T3, T4) comprising at least one guide track (14, 15) for a trolley, the transport system being characterized in that each guide track (14, 15) comprises a first and a second end at the level of the first and second ends of the sections respectively, the ends of the guide tracks (14, 15) facing each other and separated from each other by a given distance D, and in that the transport system also comprises means for spanning said distance D including at least one spanning element situated near to one at least of the opposite guide tracks (14, 15), configured to be displaced between a first so-called rest position, in which the spanning element frees the space between the guide tracks and a second so-called spanning position, in which the spanning element extends the guide tracks.
A force and moment sensor comprising a three-arm measuring structure, and a body to which forces and moments to be measured are applied, wherein the three-arm measuring structure having ends connected to said body each by means of an elastic joint having a translating spherical hinge, wherein the elastic joint with a translating spherical hinge, i.e. of the type with a spherical hinge with a sliding joint, comprises an elastic articulated plane, a support to which the elastic articulated plane is rigidly constrained, and an axial rod element, positioned according to an axis orthogonal to the plane, wherein said elastic articulated plane comprises a series of elastic elements arranged with a first end facing and rigidly connected to the axial rod element, wherein said elastic elements are flexible in any vertical plane comprising said axis and in said plane to allow four degrees of freedom, that is the translation of said axial rod element in the direction of the orthogonal axis and the spatial rotation of said axial rod element, by means of flexure of said elastic elements in any vertical plane comprising said axis, as well as the torsion of said axial rod element around the axis, by means of flexure of said elastic elements in said horizontal plane, wherein each of the arms of the three-arm measuring structure, or an extension of the same, represents the axial rod element.
Crimping station comprising: - a crimping press for producing a crimp connection, wherein the crimping press comprises a drivable press member, which is movable in vertical direction and by which a cable end of a cable is connectible with a crimp contact, - a gripper for feeding the cable end to the crimping press and - a positioning unit for vertical positioning of the cable end in the crimping press, wherein on movement of the press member between a start setting and an end setting the gripper is movable by the positioning unit, characterised in that the positioning unit is so connected with the press member by way of a variable transmission or is so operatively connected with the gripper by way of a variable transmission that on movement of the press member the positioning unit is movable relative to the press member at a speed reduced by a translation ratio of the transmission and that the translation ratio is settable by means of an adjusting device. - a crimping press for producing a crimp connection, wherein the crimping press comprises a drivable press member, which is movable in vertical direction and by which a cable end of a cable is connectible with a crimp contact, - a gripper for feeding the cable end to the crimping press and - a positioning unit for vertical positioning of the cable end in the crimping press, wherein on movement of the press member between a start setting and an end setting the gripper is movable by the positioning unit, characterised in that the positioning unit is so connected with the press member by way of a variable transmission or is so operatively connected with the gripper by way of a variable transmission that on movement of the press member the positioning unit is movable relative to the press member at a speed reduced by a translation ratio of the transmission and that the translation ratio is settable by means of an adjusting device.