mhurhangee/ep-ind-claims huggingface dataset:
A supporting frame adapted for fixing at least one expansion card to a motherboard, wherein the motherboard includes a first side, a second side adjacent to the first side, and at least a slot, the expansion card is inserted in the slot and includes a fastening plate located on one side of the expansion card far from the slot; characterized in that said supporting frame comprises: a first engagement section, adapted to be fixed on the first side of the motherboard, wherein the first engagement section is parallel to the first side and perpendicular to the second side with one end flush with the second side; a supporting section, connected to one end of said first engagement section adjacent to the second side, wherein the supporting section is perpendicular to the first side and the second side; and a second engagement section, connected to said supporting section, and spaced apart from said first engagement section, wherein the second engagement section is parallel to the first side; wherein a height is defined by said second engagement section relative to the motherboard, said second engagement section matches with the fastening plate of the expansion card and is adapted to fix the fastening plate, thereby, the motherboard is positioned on a working surface horizontally or stands on the working surface via the second side and said supporting section; wherein the first engagement section, the supporting section and the second engagement section are formed integrally. a first engagement section, adapted to be fixed on the first side of the motherboard, wherein the first engagement section is parallel to the first side and perpendicular to the second side with one end flush with the second side; a supporting section, connected to one end of said first engagement section adjacent to the second side, wherein the supporting section is perpendicular to the first side and the second side; and a second engagement section, connected to said supporting section, and spaced apart from said first engagement section, wherein the second engagement section is parallel to the first side; wherein a height is defined by said second engagement section relative to the motherboard, said second engagement section matches with the fastening plate of the expansion card and is adapted to fix the fastening plate, thereby, the motherboard is positioned on a working surface horizontally or stands on the working surface via the second side and said supporting section; wherein the first engagement section, the supporting section and the second engagement section are formed integrally.
A compound (2R,4R) -5-(5'-chloro-2'-fluorobiphenyl-4-yl)-2-hydroxy-4-[(5-methyl-oxazole-2-carbonyl)amino]pentanoic acid having the structure: or a pharmaceutically acceptable salt thereof.
Discharge lamp having a substantially ellipsoidal discharge vessel that surrounds an anode and a cathode that are respectively fixed by current-carrying, rod-shaped electrode holders (18, 20), the latter being guided through bulb shafts (8, 10) arranged diametrically on the discharge vessel, there being provided around the rod-shaped electrode holders (18, 20) at the transition from the discharge vessel to the bulb shafts (8, 10) constrictions (30, 32) that form a connecting channel (38, 40) between the discharge space, surrounded by the discharge vessel, and in each case the bulb shaft spaces (34, 36) surrounded by the bulb shafts (8, 10), characterized in that the discharge vessel, the constrictions (30, 32) and/or the anode coating are designed in such a way as to reduce or avoid blackening of the discharge vessel in the light-emitting region, in which the discharge vessel has a cylindrical cooling section substantially between a side of the anode that is averted from the cathode, and a constriction, and in which the cylindrical cooling section has a diameter that is greater than the diameter of the cylindrical anode.
A shooting toy including a shooter and a projectile to be ejected from the shooter, the shooter including a shooter body, at least one pinching element adapted to pinch the projectile and thereby hold it in the shooter body in a loaded position and a trigger element being movably mounted in the shooter body between a passive position, in which the projectile may occupy its loaded position in the shooter body, and an activated position, the trigger element having a pusher part adapted to push the projectile away from its loaded position when the trigger element is moved from its passive position to its activated position, the trigger element having a finger touch part adapted to be activated by an operator, and the projectile having a cylindrical surface, and where the shooter is adapted to eject the projectile along a centre axis of the cylindrical surface of the projectile, the at least one pinching element being adapted to prevent ejection in said direction of the projectile in its loaded position in the shooter body by means of frictional force acting between at least one pinching surface of the at least one pinching element and the cylindrical surface of the projectile, said at least one pinching surface being adapted to guide the cylindrical surface of the projectile in the ejection direction of the projectile along the centre axis of the cylindrical surface of the projectile during ejection of the projectile, characterized in that the tubular or at least partly or substantially tubular element forming the at least one pinching element, at least along a part of its length, is divided into parts by means of at least one cut-out in a wall of said element.
Method for electrically conductively connecting multicore electrical conductors of two high-voltage cables which are each surrounded by an insulating material sheath, wherein the following method steps are executed: the conductors of the two high-voltage cables are exposed at their ends by removing the respective sheath, a tubular metal piece, which is in the form of a conductive connector, is provided, the two conductors are inserted into the conductor connector from different sides, so that they are situated against one another by way of their end sides in the middle of the conductor connector, a pressing tool is used to press the conductor connector disc by disc in such a way that regular polygons are produced as press contours over the circumference of the conductor connector, threaded bore holes for receiving contact screws are produced in the conductor connector perpendicular to the flat surfaces of the press contours which are produced during pressing, bores which run in the radial direction are produced in the conductors through the threaded bore holes, and the contact screws are screwed in. the conductors of the two high-voltage cables are exposed at their ends by removing the respective sheath, a tubular metal piece, which is in the form of a conductive connector, is provided, the two conductors are inserted into the conductor connector from different sides, so that they are situated against one another by way of their end sides in the middle of the conductor connector, a pressing tool is used to press the conductor connector disc by disc in such a way that regular polygons are produced as press contours over the circumference of the conductor connector, threaded bore holes for receiving contact screws are produced in the conductor connector perpendicular to the flat surfaces of the press contours which are produced during pressing, bores which run in the radial direction are produced in the conductors through the threaded bore holes, and the contact screws are screwed in.
A method for providing secure gatekeeping of a communication transmitted from an implantable biomedical device to a remote internet-based website, the method comprising: wirelessly receiving, by a gatekeeping device, the communication transmitted from the implantable biomedical device, wherein the communication wirelessly received is encoded by the implantable biomedical device using a first encoding algorithm; decoding, by the gatekeeping device, the communication wirelessly received wherein the communication is decoded using a secret encryption method that is based on a running timer that commences upon the first powering of the implantable biomedical device; encoding, by the gatekeeping device, the communication decoded using a second encoding algorithm; and relaying, by the gatekeeping device, the communication encoded using the second encoding algorithm to the remote internet-based website via the internet; wherein the communication wirelessly received is decoded based, at least in part, upon a time difference between a communication time at which the communication is wirelessly received and an initial time reference of the implantable biomedical device. wirelessly receiving, by a gatekeeping device, the communication transmitted from the implantable biomedical device, wherein the communication wirelessly received is encoded by the implantable biomedical device using a first encoding algorithm; decoding, by the gatekeeping device, the communication wirelessly received wherein the communication is decoded using a secret encryption method that is based on a running timer that commences upon the first powering of the implantable biomedical device; encoding, by the gatekeeping device, the communication decoded using a second encoding algorithm; and relaying, by the gatekeeping device, the communication encoded using the second encoding algorithm to the remote internet-based website via the internet; wherein the communication wirelessly received is decoded based, at least in part, upon a time difference between a communication time at which the communication is wirelessly received and an initial time reference of the implantable biomedical device.
A three-way catalyst article for treating exhaust gas of a gasoline engine comprising: a substrate comprising an inlet end, an outlet end with an axial length L; an inlet catalyst layer beginning at the inlet end and extending for less than the axial length L, wherein the inlet catalyst layer comprises an inlet palladium component; an outlet catalyst layer beginning at the outlet end and extending for less than the axial length L, wherein the outlet catalyst layer comprises an outlet rhodium component; wherein the outlet catalyst layer overlaps with the inlet catalyst layer; characterized in that the outlet catalyst layer overlaps with the inlet catalyst layer for 40 to 80 percent of the axial length L; and in that the inlet catalyst layer further comprises an inlet oxygen storage capacity material. a substrate comprising an inlet end, an outlet end with an axial length L; an inlet catalyst layer beginning at the inlet end and extending for less than the axial length L, wherein the inlet catalyst layer comprises an inlet palladium component; an outlet catalyst layer beginning at the outlet end and extending for less than the axial length L, wherein the outlet catalyst layer comprises an outlet rhodium component; wherein the outlet catalyst layer overlaps with the inlet catalyst layer; characterized in that the outlet catalyst layer overlaps with the inlet catalyst layer for 40 to 80 percent of the axial length L; and in that the inlet catalyst layer further comprises an inlet oxygen storage capacity material.
A computer waking method, applied to a computer (100,300) having a Bluetooth signal receiving port, with the computer waking method comprising: determining whether the computer (100,300) receives a trigger instruction when a processor of the computer (100,300) stops working and the computer (100,300) is in a power saving mode; determining whether an intensity of a communication signal related to a registered mobile device obtained by the Bluetooth signal receiving port falls within a working intensity range; and enabling the processor to make the computer (100,300) operate in a working mode when the computer (100,300) receives the trigger instruction and the intensity of the communication signal falls within a working intensity range; wherein the power saving mode of the computer (100,300) is a hibernate mode when the computer (100,300) is operated in the power saving mode, and determining whether the intensity of the communication signal related to the registered mobile device obtained by the Bluetooth signal receiving port falls within a working intensity range is performed after receiving the trigger instruction, characterised in that the trigger instruction is generated by pressing a power switch of the computer (100, 300). determining whether the computer (100,300) receives a trigger instruction when a processor of the computer (100,300) stops working and the computer (100,300) is in a power saving mode; determining whether an intensity of a communication signal related to a registered mobile device obtained by the Bluetooth signal receiving port falls within a working intensity range; and enabling the processor to make the computer (100,300) operate in a working mode when the computer (100,300) receives the trigger instruction and the intensity of the communication signal falls within a working intensity range; wherein the power saving mode of the computer (100,300) is a hibernate mode when the computer (100,300) is operated in the power saving mode, and determining whether the intensity of the communication signal related to the registered mobile device obtained by the Bluetooth signal receiving port falls within a working intensity range is performed after receiving the trigger instruction, characterised in that the trigger instruction is generated by pressing a power switch of the computer (100, 300).
A method for joint multi-user processing in a first base station of a telecommunication network, which includes at least a second base station and first and second terminals [10 and 12] served by the corresponding first and second base stations [32 and 34], the method comprising: issuing, at the first base station, a first uplink transmission grant for the first terminal; receiving, at the first base station, from the second base station scheduling information about an uplink transmission of the second terminal, wherein an uplink transmission grant for the uplink transmission of the second terminal is issued by the second base station, and wherein the receiving step is performed after the issuing step and prior to the decoding, at the first base station, of the uplink transmission from the first terminal; and performing, at the first base station, joint multi-user decoding of the uplink transmission from the first terminal and the uplink transmission from the second terminal, which is not served by the first base station, based on the received scheduling information about the uplink transmission of the second terminal, and wherein the joint multi-user processing step further comprises: decoding, at the first base station, the uplink transmission from the first terminal; decoding, at the first base station, the uplink transmission from the second terminal; and cancelling, at the first base station, an interference produced by the uplink transmission of the second terminal to the uplink transmission of the first terminal, based on the decoded uplink transmission of the second terminal. issuing, at the first base station, a first uplink transmission grant for the first terminal; receiving, at the first base station, from the second base station scheduling information about an uplink transmission of the second terminal, wherein an uplink transmission grant for the uplink transmission of the second terminal is issued by the second base station, and wherein the receiving step is performed after the issuing step and prior to the decoding, at the first base station, of the uplink transmission from the first terminal; and performing, at the first base station, joint multi-user decoding of the uplink transmission from the first terminal and the uplink transmission from the second terminal, which is not served by the first base station, based on the received scheduling information about the uplink transmission of the second terminal, and wherein the joint multi-user processing step further comprises: decoding, at the first base station, the uplink transmission from the first terminal; decoding, at the first base station, the uplink transmission from the second terminal; and cancelling, at the first base station, an interference produced by the uplink transmission of the second terminal to the uplink transmission of the first terminal, based on the decoded uplink transmission of the second terminal. decoding, at the first base station, the uplink transmission from the first terminal; decoding, at the first base station, the uplink transmission from the second terminal; and
A non contact power transmission apparatus comprising: a board comprising a control module; a shielding plate disposed proximate to the board; characterised in that said non contact power transmission apparatus further comprises a primary coil disposed on an opposite side of the shielding plate from the board and configured to electrically connect to the control module, wherein the shielding plate shields the control module from a wireless power signal generated by the primary coil; wherein the control module is configured to cause a transmission of an ID requesting signal via the primary coil to an object placed adjacent the primary coil, and cause a transmission of the wireless power signal via the primary coil to the object if an ID response signal is received via the primary coil in response to the ID requesting signal. a board comprising a control module; a shielding plate disposed proximate to the board; characterised in that said non contact power transmission apparatus further comprises a primary coil disposed on an opposite side of the shielding plate from the board and configured to electrically connect to the control module, wherein the shielding plate shields the control module from a wireless power signal generated by the primary coil; wherein the control module is configured to cause a transmission of an ID requesting signal via the primary coil to an object placed adjacent the primary coil, and cause a transmission of the wireless power signal via the primary coil to the object if an ID response signal is received via the primary coil in response to the ID requesting signal.
A fluid ejection device, comprising: a fluid supply chamber to store fluid; a plurality of ejection chambers including nozzles and corresponding ejection members to selectively eject the fluid through the respective nozzles; a channel to establish fluid communication between the fluid supply chamber and the ejection members; a temperature adjustment module to establish at least one temperature of the fluid of the fluid ejection device; and a sensor unit having a sensor plate, the sensor unit to detect at least one impedance in the fluid corresponding to the at least one temperature, characterised in that the sensor plate is disposed in the channel. a fluid supply chamber to store fluid; a plurality of ejection chambers including nozzles and corresponding ejection members to selectively eject the fluid through the respective nozzles; a channel to establish fluid communication between the fluid supply chamber and the ejection members; a temperature adjustment module to establish at least one temperature of the fluid of the fluid ejection device; and a sensor unit having a sensor plate, the sensor unit to detect at least one impedance in the fluid corresponding to the at least one temperature, characterised in that the sensor plate is disposed in the channel.
A method, executed at a first communication device, for enabling communication between a group of communication devices, including the first communication device, the method comprising: - responsive to data captured by at least one sensor of the first communication device, satisfying a trigger condition, initiating an attempt to recognize at least one second communication device in the vicinity of the first communication device; - responsive to successful recognition of the at least one second communication device, exchanging data between the first and the at least one second communication device; - determining (2:40), based on the exchanged data, rules to be applied for a coordinated signaling, from the first communication device and at least one of the at least one second communication device, and - initiating (2:50) the coordinated signaling, based on the determined rules, wherein the coordinated signaling comprises one or more of light and sound. - responsive to data captured by at least one sensor of the first communication device, satisfying a trigger condition, initiating an attempt to recognize at least one second communication device in the vicinity of the first communication device; - responsive to successful recognition of the at least one second communication device, exchanging data between the first and the at least one second communication device; - determining (2:40), based on the exchanged data, rules to be applied for a coordinated signaling, from the first communication device and at least one of the at least one second communication device, and - initiating (2:50) the coordinated signaling, based on the determined rules, wherein the coordinated signaling comprises one or more of light and sound.
A method for forming a three-dimensional memory device, comprising: forming a dielectric stack comprising interleaved first dielectric layers and second dielectric layers on a substrate; forming an opening extending vertically through the dielectric stack; forming a native oxide layer along a sidewall of the opening, the native oxide layer comprising native oxide of at least some of the first dielectric layers; and subsequently forming a deposited oxide layer, a storage layer, a tunneling layer, and a semiconductor channel over the native oxide layer and along the sidewall of the opening in this order; and forming a memory stack comprising interleaved conductor layers and the second dielectric layers by replacing, with the conductor layers, the first dielectric layers in the dielectric stack, characterized in that the native oxide layer fully covers the sidewall of channel hole, wherein the native oxide layer is formed by oxidizing the sidewall of channel hole including left portions of first dielectric layers to form native oxide with a thickness in the range of between about 0.5 nm and about 3 nm, wherein the native oxide layer is formed by wet chemical oxidation using chemicals containing ozone, wherein the wet chemical is a mixture of hydrofluoric acid and ozone. forming a dielectric stack comprising interleaved first dielectric layers and second dielectric layers on a substrate; forming an opening extending vertically through the dielectric stack; forming a native oxide layer along a sidewall of the opening, the native oxide layer comprising native oxide of at least some of the first dielectric layers; and subsequently forming a deposited oxide layer, a storage layer, a tunneling layer, and a semiconductor channel over the native oxide layer and along the sidewall of the opening in this order; and forming a memory stack comprising interleaved conductor layers and the second dielectric layers by replacing, with the conductor layers, the first dielectric layers in the dielectric stack, characterized in that the native oxide layer fully covers the sidewall of channel hole, wherein the native oxide layer is formed by oxidizing the sidewall of channel hole including left portions of first dielectric layers to form native oxide with a thickness in the range of between about 0.5 nm and about 3 nm, wherein the native oxide layer is formed by wet chemical oxidation using chemicals containing ozone, wherein the wet chemical is a mixture of hydrofluoric acid and ozone.