mhurhangee/ep-ind-claims huggingface dataset:
A cervical vertebra fixation device using a plurality of screws (21, 22, 23, 26, 27, 28) and comprising a body having a length extending across at least two bones, and including a first end and a second end opposite to the first end (11; whereby, including on each of the first and second ends (11, 12): three or more openings (31, 32, 33; 36, 37, 38) formed in the body for receiving the plurality of screws (21, 22, 23; 26, 27, 28), wherein the respective end (11; 12) has a profile with at least a portion of the body being removed with respect to the horizontal line perpendicular to the length direction to prevent adjacent segment degeneration, wherein the profile is formed of a convex upward line, and characterized by, among the three or more openings (31, 32, 33; 36, 37, 38), one (32; 37) is formed in a convex upward portion of the body and the other two (31, 33; 36, 38) are formed in the body in such a manner that the screws (21, 23; 26, 28) are inserted therein respectively at an inclined angle, facing towards the one (22; 27) formed in the convex upward portion of the body, and wherein among the three or more openings (31, 32, 33; 36, 37, 38), the one (32; 37) arranged at the closest to the respective end (11; 12) is formed in such a manner that the screw (22; 27) inserted into the one (32; 37) and the other two screws (21, 23; 26, 28) cross each other. three or more openings (31, 32, 33; 36, 37, 38) formed in the body for receiving the plurality of screws (21, 22, 23; 26, 27, 28), wherein the respective end (11; 12) has a profile with at least a portion of the body being removed with respect to the horizontal line perpendicular to the length direction to prevent adjacent segment degeneration, wherein the profile is formed of a convex upward line, and characterized by, among the three or more openings (31, 32, 33; 36, 37, 38), one (32; 37) is formed in a convex upward portion of the body and the other two (31, 33; 36, 38) are formed in the body in such a manner that the screws (21, 23; 26, 28) are inserted therein respectively at an inclined angle, facing towards the one (22; 27) formed in the convex upward portion of the body, and wherein among the three or more openings (31, 32, 33; 36, 37, 38), the one (32; 37) arranged at the closest to the respective end (11; 12) is formed in such a manner that the screw (22; 27) inserted into the one (32; 37) and the other two screws (21, 23; 26, 28) cross each other.
Method for protecting a vehicle by an identification as a friend or foe, in which an aerial vehicle with a tracking system, which includes a tracking sensor and a control unit, engages the vehicle in an attack, wherein the aerial vehicle receives a signal with a defensive measure, within which there is an identification as a friend, detects the identification as a friend as such and, on the basis of the detection, aborts the attack, the signal with the identification as a friend being received in a frequency range in which the tracking sensor of the aerial vehicle is sensitive, the signal being received by the tracking sensor and being processed by the control unit.
A switching unit for a seat arrangement, which is configured to change a direction of arrangement of seats in a vehicle cabin of a vehicle, the switching unit comprising: a support base, which is to be fixed to a vehicle cabin, and is configured to support the seats; a rotating support, which is fixed to the support base, and is configured to serve as a center of rotation of the seats; a seat mounting frame configured to allow the seats to be fixed thereto; linear guides, which are arranged between the seat mounting frame and the rotating support, and is configured to guide movement of the seat mounting frame with respect to the rotating support along the width direction of the seats; a rotation stopping member, which is provided to the support base, and is configured to lock rotation of the seat mounting frame caused by the rotating support; and a seat fixing member configured to lock movement of the seat mounting frame with respect to the rotating support. a support base, which is to be fixed to a vehicle cabin, and is configured to support the seats; a rotating support, which is fixed to the support base, and is configured to serve as a center of rotation of the seats; a seat mounting frame configured to allow the seats to be fixed thereto; linear guides, which are arranged between the seat mounting frame and the rotating support, and is configured to guide movement of the seat mounting frame with respect to the rotating support along the width direction of the seats; a rotation stopping member, which is provided to the support base, and is configured to lock rotation of the seat mounting frame caused by the rotating support; and a seat fixing member configured to lock movement of the seat mounting frame with respect to the rotating support.
A plate-shaped cutting insert with multiple alternately usable cutting edges having basically the shape of an equilateral triangle and including three acute corners (c) and sides between said corners (c), each of said sides being formed with a V-shaped recess and at least two V-shaped protrusions as seen from the top of the insert, said recess and said protrusions being adapted to be brought into engagement with a protrusion and recesses formed on a side wall of a holder, said protrusions on each side being symmetrical with respect to a straight line connecting the center of said insert with the center of said each side, wherein: each of said protrusions is defined by two flat surfaces forming an angle as seen from the top of the insert; characterised in that said flat surfaces form an angle of 60 to 120 degrees and said protrusions have apexes that are located on or inside of lines connecting said corners. each of said protrusions is defined by two flat surfaces forming an angle as seen from the top of the insert; characterised in that said flat surfaces form an angle of 60 to 120 degrees and said protrusions have apexes that are located on or inside of lines connecting said corners.
A secondary battery pack comprising: a battery cell having a cathode terminal and an anode terminal formed at one face having a sealed surplus portion; and a protection circuit module electrically connected to the battery cell via the cathode terminal and the anode terminal, wherein the PCM comprises: a protection circuit board having a cathode terminal connection part connected to the cathode terminal and an anode terminal connection part connected to the anode terminal; and an electrically insulative case configured to receive the protection circuit board through an open face thereof, the electrically insulative case being a single case; and the protection circuit board, connected to the cathode terminal and the anode terminal of the battery cell via the cathode terminal connection part and the anode terminal connection part, is mounted to the sealed surplus portion of the battery cell in a state in which the protection circuit board is disposed in the case so that the cathode terminal and the anode terminal are exposed through the open face of the case, wherein the anode terminal connection part of the PCM is connected to the anode terminal of the battery cell via a safety element, and wherein the electrically insulative case is provided with a mounting groove, in which the protection circuit board and the safety element are mounted through the open face. a battery cell having a cathode terminal and an anode terminal formed at one face having a sealed surplus portion; and a protection circuit module electrically connected to the battery cell via the cathode terminal and the anode terminal, wherein the PCM comprises: a protection circuit board having a cathode terminal connection part connected to the cathode terminal and an anode terminal connection part connected to the anode terminal; and an electrically insulative case configured to receive the protection circuit board through an open face thereof, the electrically insulative case being a single case; and a protection circuit board having a cathode terminal connection part connected to the cathode terminal and an anode terminal connection part connected to the anode terminal; and an electrically insulative case configured to receive the protection circuit board through an open face thereof, the electrically insulative case being a single case; and the protection circuit board, connected to the cathode terminal and the anode terminal of the battery cell via the cathode terminal connection part and the anode terminal connection part, is mounted to the sealed surplus portion of the battery cell in a state in which the protection circuit board is disposed in the case so that the cathode terminal and the anode terminal are exposed through the open face of the case, wherein the anode terminal connection part of the PCM is connected to the anode terminal of the battery cell via a safety element, and wherein the electrically insulative case is provided with a mounting groove, in which the protection circuit board and the safety element are mounted through the open face.
A cooking instrument (100, 200, 300, 500) comprising: a cooking chamber (102, 502); a support tray (110, 516) adapted to hold food in the cooking chamber; a heating system comprised of a heating element (114A, 114B, 506) configured to emit waves at different peak emission wavelengths, the different peak emission wavelengths including at a first peak wavelength such that the support tray is substantially opaque to waves emitted from the heating element, at a second peak wavelength such that the support tray is substantially transparent to waves emitted from the heating element, and at a third peak wavelength such that the emitted waves directly transfer heat to the support tray substantially without directly transferring heat to the food on the support tray; and a control system configured to select one of the different peak emission wavelengths and drive the heating element to emit at the selected one of the different peak emission wavelengths. a cooking chamber (102, 502); a support tray (110, 516) adapted to hold food in the cooking chamber; a heating system comprised of a heating element (114A, 114B, 506) configured to emit waves at different peak emission wavelengths, the different peak emission wavelengths including at a first peak wavelength such that the support tray is substantially opaque to waves emitted from the heating element, at a second peak wavelength such that the support tray is substantially transparent to waves emitted from the heating element, and at a third peak wavelength such that the emitted waves directly transfer heat to the support tray substantially without directly transferring heat to the food on the support tray; and a control system configured to select one of the different peak emission wavelengths and drive the heating element to emit at the selected one of the different peak emission wavelengths.
A method for wireless communications at a user equipment, comprising: receiving a configuration for partitioning a plurality of sequences into a plurality of sequence pools associated with a plurality of UEs; identifying, based at least in part on the configuration, a first subset of indices of an orthogonal matrix, corresponding to a subset of rows or columns of the orthogonal matrix, and a second subset of indices of a cyclically shifted cell-specific sequence, corresponding to a subset of cyclic shifts of the cyclically shifted cell-specific sequence; generating a first sequence pool based at least in part on a product of the subset of rows or columns corresponding to the first subset of indices of the orthogonal matrix and the cyclically shifted cell-specific sequences corresponding to the second subset of indices of the cyclically shifted cell-specific sequence; determining a subset of sequences from the first sequence pool of the plurality of sequence pools for conveying a payload based at least in part on the configuration, wherein a size of the subset of sequences is based at least in part on a quantity of a plurality of bits of the payload; selecting a sequence from the subset of sequences based at least in part on a mapping between the subset of sequences and the plurality of bits; and transmitting the payload comprising the plurality of bits using the selected sequence. receiving a configuration for partitioning a plurality of sequences into a plurality of sequence pools associated with a plurality of UEs; identifying, based at least in part on the configuration, a first subset of indices of an orthogonal matrix, corresponding to a subset of rows or columns of the orthogonal matrix, and a second subset of indices of a cyclically shifted cell-specific sequence, corresponding to a subset of cyclic shifts of the cyclically shifted cell-specific sequence; generating a first sequence pool based at least in part on a product of the subset of rows or columns corresponding to the first subset of indices of the orthogonal matrix and the cyclically shifted cell-specific sequences corresponding to the second subset of indices of the cyclically shifted cell-specific sequence; determining a subset of sequences from the first sequence pool of the plurality of sequence pools for conveying a payload based at least in part on the configuration, wherein a size of the subset of sequences is based at least in part on a quantity of a plurality of bits of the payload; selecting a sequence from the subset of sequences based at least in part on a mapping between the subset of sequences and the plurality of bits; and transmitting the payload comprising the plurality of bits using the selected sequence.
An information handling system for capturing user input, the information handling system comprising: a processor; a memory; a cover surface; a display surface; a plurality of optical sensors coupled to the display surface; and a pen-shaped user input device configured to be in contact with the cover surface, the pen-shaped user input device comprising: a length axis and a surface contact portion having a tip-end; a first light source adapted for emitting a first light through the tip-end forming a first light path, the first light configured to activate one or more of the plurality of optical sensors; and a second light source adapted for emitting a second light through the tip-end forming a second light path, the second light configured to activate one or more of the plurality of optical sensors; wherein the first and second light source comprise a laser; wherein the processor is configured to calculate an incidence angle associated with the user input device from a first angle associated with the first light, a second angle associated with the second light and a distance between the optical sensors on which the first and second light path (120, 122) are incident; wherein the incidence angle is formed between the surface contact portion and the display surface; wherein the first angle is formed between the length axis of the pen-shaped input device and the first light path; wherein the second angle is formed between the length axis of the pen-shaped input device and the second light path. a processor; a memory; a cover surface; a display surface; a plurality of optical sensors coupled to the display surface; and a pen-shaped user input device configured to be in contact with the cover surface, the pen-shaped user input device comprising: a length axis and a surface contact portion having a tip-end; a first light source adapted for emitting a first light through the tip-end forming a first light path, the first light configured to activate one or more of the plurality of optical sensors; and a second light source adapted for emitting a second light through the tip-end forming a second light path, the second light configured to activate one or more of the plurality of optical sensors; a length axis and a surface contact portion having a tip-end; a first light source adapted for emitting a first light through the tip-end forming a first light path, the first light configured to activate one or more of the plurality of optical sensors; and a second light source adapted for emitting a second light through the tip-end forming a second light path, the second light configured to activate one or more of the plurality of optical sensors; wherein the first and second light source comprise a laser; wherein the processor is configured to calculate an incidence angle associated with the user input device from a first angle associated with the first light, a second angle associated with the second light and a distance between the optical sensors on which the first and second light path (120, 122) are incident;
A direct-current power supply device for converting a first voltage that is an input voltage into a second voltage that is an output voltage, comprising: a charge storage unit including a first capacitor and a second capacitor; a switching unit including a first switching element and a second switching element and a backflow preventing element (5a, 5b) configured to suppress a backflow of charges from the charge storage unit, the switching unit being configured to switch between a first mode and a second, boosting, mode, wherein the direct-current power supply device further comprises a switching control unit that is configured to, when transitioning the switching unit from the first mode in which on-duty of the first switching element and the second switching element is a first value to the second mode in which the on-duty of the first switching element and the second switching element is a second value larger than the first value, gradually change the on-duty from the first value to the second value, taking equal to or longer time than a first time and reduce stepwise a switching frequency of the first switching element and the second switching element after the on-duty has reached the second value, and wherein a middle point between the first switching element and the second switching element and a middle point between the first capacitor and the second capacitor are connected. a charge storage unit including a first capacitor and a second capacitor; a switching unit including a first switching element and a second switching element and a backflow preventing element (5a, 5b) configured to suppress a backflow of charges from the charge storage unit, the switching unit being configured to switch between a first mode and a second, boosting, mode, wherein the direct-current power supply device further comprises a switching control unit that is configured to, when transitioning the switching unit from the first mode in which on-duty of the first switching element and the second switching element is a first value to the second mode in which the on-duty of the first switching element and the second switching element is a second value larger than the first value, gradually change the on-duty from the first value to the second value, taking equal to or longer time than a first time and reduce stepwise a switching frequency of the first switching element and the second switching element after the on-duty has reached the second value, and wherein a middle point between the first switching element and the second switching element and a middle point between the first capacitor and the second capacitor are connected.
An elastomeric polymer composition comprising a polymer blend comprising a first polymer and a second polymer, wherein the first polymer comprises from 70 to 90 wt% units derived from propylene and from 10 wt% to 30 wt% units derived from ethylene and/or a C 4 -C 10 alpha-olefin; the second polymer comprises from 88 wt% to 98 wt% units derived from propylene and from 2 wt% to 12 wt% units derived from ethylene and/or a C 4 -C 10 alpha-olefin; and the elastomeric polymer composition is characterized by two or more of the following properties: (i.) an overall propylene content of between 75 wt% and 90 wt%; (ii.) a melting point (measured with DSC) between 110°C and 145°C; (iii.) a Vicat softening point (measured with ASTM D1525) greater than 45°C; (iv.) a tensile stress at 300% strain of less than 500 psi (3447 kPa), as determined by a stress strain test according to ASTM D412; or (v.) an average maximum force for pellet separation of less than 10 N in an accelerated storage stability test.
A system for monitoring structural health of a structure, the system comprising: a distributed network of piezoelectric sensor assemblies obtained by depositing nanoparticle ink, said ink comprising piezoelectric sensor nanoparticles, which have been pre-crystallized, onto the structure, each assembly comprising: a plurality of nanoparticle ink based piezoelectric sensors; and, a plurality of conductive ink power and communication wire assemblies interconnecting the plurality of sensors; an electrical power source providing electrical power to the distributed network; and, a data communications network retrieving and processing structural health data of the structure via one or more signals from the sensors. a distributed network of piezoelectric sensor assemblies obtained by depositing nanoparticle ink, said ink comprising piezoelectric sensor nanoparticles, which have been pre-crystallized, onto the structure, each assembly comprising: a plurality of nanoparticle ink based piezoelectric sensors; and, a plurality of conductive ink power and communication wire assemblies interconnecting the plurality of sensors; a plurality of nanoparticle ink based piezoelectric sensors; and, a plurality of conductive ink power and communication wire assemblies interconnecting the plurality of sensors; an electrical power source providing electrical power to the distributed network; and, a data communications network retrieving and processing structural health data of the structure via one or more signals from the sensors.