mhurhangee/ep-ind-claims huggingface dataset:
An aerosol generating device (100, 200, 300, 10000) comprising: a main body (110, 210, 310) comprising a battery (112, 212, 312, 11000), a capacitive sensor (113, 213, 313), a controller (114, 214, 314, 16000), a first contact terminal, and a first conductive element, a cartridge (120, 220, 320) comprising a mouthpiece, a second conductive element, a second contact terminal, and a heater (122, 222, 12000), wherein the cartridge (120, 220, 320) is configured to be detachably coupled to the main body (110, 210, 310), wherein the second conductive element is arranged on the mouthpiece, wherein the second contact terminal is configured to be electrically connected to the first contact terminal such that the second conductive element is electrically connected to the capacitive sensor (113, 213, 313), wherein the second contact terminal is arranged on a side wall of the cartridge, wherein at least a portion of the side wall is formed to protrude more than the second contact terminal, wherein the controller (114, 214, 314, 16000) is configured to control power supplied from the battery (112, 212, 312, 11000) to the heater (122, 222, 12000) based on an order of a first time point at which the capacitive sensor (113, 213, 313) senses contact of a user through the first conductive element, and a second time point at which the capacitive sensor (113, 213, 313) senses contact of the user through the second conductive element. a main body (110, 210, 310) comprising a battery (112, 212, 312, 11000), a capacitive sensor (113, 213, 313), a controller (114, 214, 314, 16000), a first contact terminal, and a first conductive element, a cartridge (120, 220, 320) comprising a mouthpiece, a second conductive element, a second contact terminal, and a heater (122, 222, 12000), wherein the cartridge (120, 220, 320) is configured to be detachably coupled to the main body (110, 210, 310), wherein the second conductive element is arranged on the mouthpiece, wherein the second contact terminal is configured to be electrically connected to the first contact terminal such that the second conductive element is electrically connected to the capacitive sensor (113, 213, 313), wherein the second contact terminal is arranged on a side wall of the cartridge, wherein at least a portion of the side wall is formed to protrude more than the second contact terminal, wherein the controller (114, 214, 314, 16000) is configured to control power supplied from the battery (112, 212, 312, 11000) to the heater (122, 222, 12000) based on an order of a first time point at which the capacitive sensor (113, 213, 313) senses contact of a user through the first conductive element, and a second time point at which the capacitive sensor (113, 213, 313) senses contact of the user through the second conductive element.
Method for the electrical discharge machining of a workpiece, wherein a plurality of discrete electrical discharge machining pulses are applied to a gap between work piece and electrode, and wherein an open voltage is applied between the electrode and the work piece to induce a discharge, characterized in that, - the open voltage of a present pulse is initially applied at an initial open voltage level U o0, and - said open voltage is increased to a second open voltage level U o1 if a discharge does not occur within a first waiting time d 0, and - said open voltage is further increased to a third open voltage level U o2 if a discharge does not occur within a second waiting time d 1, and - an average of the products sum W step of the partial open voltages U o0, U o1, U o2 times the partial ignition delays t d0, t d1, t d2 is computed based on a plurality of pulses, and said average products sum W step is compared with the average product W tec being the product of a previously set reference open voltage U 0_tec multiplied by the total ignition delay t dT, and - a servo setpoint value for the gap width control is adjusted such as to reduce the gap width if the average products sum W step is larger than the average product W tec, and the servo setpoint value is adjusted such as to increase the gap width if the average products sum W step is smaller than the average product W tec. - the open voltage of a present pulse is initially applied at an initial open voltage level U o0, and - said open voltage is increased to a second open voltage level U o1 if a discharge does not occur within a first waiting time d 0, and - said open voltage is further increased to a third open voltage level U o2 if a discharge does not occur within a second waiting time d 1, and - an average of the products sum W step of the partial open voltages U o0, U o1, U o2 times the partial ignition delays t d0, t d1, t d2 is computed based on a plurality of pulses, and said average products sum W step is compared with the average product W tec being the product of a previously set reference open voltage U 0_tec multiplied by the total ignition delay t dT, and - a servo setpoint value for the gap width control is adjusted such as to reduce the gap width if the average products sum W step is larger than the average product W tec, and the servo setpoint value is adjusted such as to increase the gap width if the average products sum W step is smaller than the average product W tec.
A case structure, comprising: an inner case base, having a corner area and a fixing column located at the corner area; and a torsional spring; the case structure being characterized in further comprising a buffer outer case, movably overlapped on an outer side of the corner area and suitable for moving relative to the corner area after a force is exerted on the buffer outer case; and in that the torsional spring is sleeved on the fixing column and located between the buffer outer case and the inner case base, wherein the torsional spring has a first end and a second end that are opposite to each other and the first end and the second end are respectively connected to the buffer outer case, wherein the buffer outer case moves relative to the inner case base when the force exerted on the buffer outer case, the torsional spring correspondingly deforms and stores elastic potential energy, and when the force exerted on the buffer outer case disappears, the torsional spring releases the elastic potential energy to reposition the buffer outer case. an inner case base, having a corner area and a fixing column located at the corner area; and a torsional spring; the case structure being characterized in further comprising a buffer outer case, movably overlapped on an outer side of the corner area and suitable for moving relative to the corner area after a force is exerted on the buffer outer case; and in that the torsional spring is sleeved on the fixing column and located between the buffer outer case and the inner case base, wherein the torsional spring has a first end and a second end that are opposite to each other and the first end and the second end are respectively connected to the buffer outer case, wherein the buffer outer case moves relative to the inner case base when the force exerted on the buffer outer case, the torsional spring correspondingly deforms and stores elastic potential energy, and when the force exerted on the buffer outer case disappears, the torsional spring releases the elastic potential energy to reposition the buffer outer case.
An automated process for manufacturing items of furniture in an integrated manufacturing cell, the process comprising the following steps: a) Initial machining of a plate according to a manufacturing program, generating channels and holes; b) Installing inserts in the holes generated in the initial machining and applying resin in at least one side hole of the insert; c) Applying edging resin inside the channels generated in the initial machining; d) Curing the edging resin and resin of the inserts in a heated environment; e) Final machining of plate generating at least an item of furniture. a) Initial machining of a plate according to a manufacturing program, generating channels and holes; b) Installing inserts in the holes generated in the initial machining and applying resin in at least one side hole of the insert; c) Applying edging resin inside the channels generated in the initial machining; d) Curing the edging resin and resin of the inserts in a heated environment; e) Final machining of plate generating at least an item of furniture.
Cutter system for an electric shaver and/or trimmer, comprising a pair of cooperating cutting elements (4, 5) with two rows of comb-like cutting teeth (6, 7) at opposite edges thereof and a skin contact surface or skin facing surface of said cutting elements (4, 5), wherein said cutting elements (4, 5) are movably supported relative to each other by a support structure which provides for a pivot axis about which said cooperating cutting elements are pivotable to follow the skin contour, said pivot axis extending substantially parallel to a longitudinal direction of said rows of comb-like cutting teeth (6, 7), characterised in that said pivot axis is positioned offset from a middle plane which extends perpendicular to a center section of said skin contact/facing surface of the cutting elements (4, 5) and thus closer to a first one of said rows of comb-like cutting teeth than to a second one of said comb-like cutting teeth and wherein at least one field of cutting perforations between said rows of comb-like cutting teeth (6, 7) is provided, which cutting perforations are formed in a skin contact surface or skin facing surface of said cutting elements (4, 5).
A hydraulic circuit for a construction machine comprising: a variable displacement hydraulic pump; at least two hydraulic actuators (2, 3, 4) driven by hydraulic fluid that is supplied from the hydraulic pump; control valves (6, 7, 8) installed in a center bypass path of the hydraulic pump and shifted to control a start, stop, and direction change of the hydraulic actuators (2, 3, 4); a parallel flow path having inlets branched and connected to predetermined positions on an uppermost stream side of the center bypass path and outlets connected to inlet ports of the control valves (6, 7, 8); bleed-off paths (6a, 7a) formed on the control valves (6, 7) excluding the lowermost downstream side control valve among the control valves (6, 7, 8) to selectively communicate with the center bypass path, the bleed-off paths (6a, 7a) communicating with the center bypass path when the control valves (6, 7) are shifted for a combined work; and a switching valve installed on a lowermost downstream side of the center bypass path to intercept the center bypass path when a pilot signal pressure is applied, characterized in that the hydraulic circuit further comprises: as means for applying the pilot signal pressure to shift the switching valve, a shuttle valve selecting the relatively higher pilot signal pressure of the pilot signal pressures applied to the upstream and downstream side control valves (6, 7) on which the bleed-off paths (6a, 7a) are formed and applying the selected pilot signal pressure to the switching valve. a variable displacement hydraulic pump; at least two hydraulic actuators (2, 3, 4) driven by hydraulic fluid that is supplied from the hydraulic pump; control valves (6, 7, 8) installed in a center bypass path of the hydraulic pump and shifted to control a start, stop, and direction change of the hydraulic actuators (2, 3, 4); a parallel flow path having inlets branched and connected to predetermined positions on an uppermost stream side of the center bypass path and outlets connected to inlet ports of the control valves (6, 7, 8); bleed-off paths (6a, 7a) formed on the control valves (6, 7) excluding the lowermost downstream side control valve among the control valves (6, 7, 8) to selectively communicate with the center bypass path, the bleed-off paths (6a, 7a) communicating with the center bypass path when the control valves (6, 7) are shifted for a combined work; and a switching valve installed on a lowermost downstream side of the center bypass path to intercept the center bypass path when a pilot signal pressure is applied, characterized in that the hydraulic circuit further comprises: as means for applying the pilot signal pressure to shift the switching valve, a shuttle valve selecting the relatively higher pilot signal pressure of the pilot signal pressures applied to the upstream and downstream side control valves (6, 7) on which the bleed-off paths (6a, 7a) are formed and applying the selected pilot signal pressure to the switching valve.
A 3D-printed synthetic bone graft with a composition comprising calcium-deficient hydroxyapatite (CDHA) in an amount of at least 60 wt.% with respect to the total weight of the composition, optionally α-TCP and/or β-TCP, and having a binder content in the range of 5 wt.% or less, preferably in the range of 0.25 wt.% to 1 wt.% with respect to the total weight of the composition, wherein the composition has a macro-porosity in the range of 10 % to 60%, as determined by calculating the difference between the total porosity and the nano-micro porosity, wherein the nano-microporosity is determined by mercury intrusion porosimetry; and the macroporosity is defined as a pore entrance size larger than 10 μm, the pore entrance size being determined by mercury intrusion porosimetry. the nano-microporosity is determined by mercury intrusion porosimetry; and the macroporosity is defined as a pore entrance size larger than 10 μm, the pore entrance size being determined by mercury intrusion porosimetry.
A composition comprising: at least one isolated protein comprising the amino acid sequence of SEQ ID NO:301; wherein x is any amino acid; wherein the region from amino acid position 5 to amino acid position 8 is any of 0 to 4 amino acids; wherein the region from amino acid position 66 to amino acid position 68 is any of 0 to 3 amino acids; provided that said protein is not SEQ ID NO: 1, 5, 7, 9, 14, 15, 17, 18, 19, 20 or 22 of WO03/020756; for use as a medicament. at least one isolated protein comprising the amino acid sequence of SEQ ID NO:301; wherein x is any amino acid; wherein the region from amino acid position 5 to amino acid position 8 is any of 0 to 4 amino acids; wherein the region from amino acid position 66 to amino acid position 68 is any of 0 to 3 amino acids; provided that said protein is not SEQ ID NO: 1, 5, 7, 9, 14, 15, 17, 18, 19, 20 or 22 of WO03/020756; for use as a medicament.
A method for wireless communications by a wireless device, comprising: detecting a collision between resources allocated to different channels; and initiating collision handling when processing the different channels based on the detection, wherein at least one of the detection or the processing is based on one or more characteristics of the different channels or the wireless device; wherein the one or more characteristics comprise at least one of one or more numerologies associated with at least one of the different channels, a modulation order of at least one of the different channels, coding rate of at least one of the different channels, or one or more capabilities of the wireless device; wherein the different channels comprise at least one of a physical downlink shared channel, PDSCH, or a physical downlink control channel, PDCCH, and at least one of a synchronization channel or a physical broadcast channel, PBCH; and wherein the collision is detected if one or more resource blocks, RBs, allocated to the PDCCH or PDSCH overlap with, or are within a frequency gap of, one or more RBs allocated to the synchronization channel or PBCH. detecting a collision between resources allocated to different channels; and initiating collision handling when processing the different channels based on the detection, wherein at least one of the detection or the processing is based on one or more characteristics of the different channels or the wireless device; wherein the one or more characteristics comprise at least one of one or more numerologies associated with at least one of the different channels, a modulation order of at least one of the different channels, coding rate of at least one of the different channels, or one or more capabilities of the wireless device; wherein the different channels comprise at least one of a physical downlink shared channel, PDSCH, or a physical downlink control channel, PDCCH, and at least one of a synchronization channel or a physical broadcast channel, PBCH; and wherein the collision is detected if one or more resource blocks, RBs, allocated to the PDCCH or PDSCH overlap with, or are within a frequency gap of, one or more RBs allocated to the synchronization channel or PBCH.
A polypeptide comprising a serine protease variant of wild type human granzyme B as shown in SEQ ID NO: 1, having at least a modification at a position that correspond structurally or by amino acid sequence homology to position 201, wherein said polypeptide has a greater apoptotic activity compared to wild type granzyme B and reduced sensitivity to the activity-inhibiting substance Serpin B9, wherein the modification is the substitution R201A or R201K, and wherein the amino acid sequence of said polypeptide having at least 85% identity to amino acids 28 - 202 of SEQ ID NO.1.
An aircraft wing comprising: a rear spar having a rear side and a front side opposite the rear side; and a forward trunnion support assembly including: a side load backup fitting disposed on the front side of the rear spar; a forward trunnion housing assembly coupled to the rear side of the rear spar; a side load fitting disposed on the rear side of the rear spar, a first end of the side load fitting coupled to the forward trunnion housing assembly, a second end of the side load fitting coupled to side load backup fitting via a first plurality of fasteners extending through the rear spar; and an upper stabilization brace fitting disposed on the rear side of the rear spar, the upper stabilization brace fitting coupled to the side load backup fitting via a second plurality of fasteners 646) extending through the rear spar. a rear spar having a rear side and a front side opposite the rear side; and a forward trunnion support assembly including: a side load backup fitting disposed on the front side of the rear spar; a forward trunnion housing assembly coupled to the rear side of the rear spar; a side load fitting disposed on the rear side of the rear spar, a first end of the side load fitting coupled to the forward trunnion housing assembly, a second end of the side load fitting coupled to side load backup fitting via a first plurality of fasteners extending through the rear spar; and an upper stabilization brace fitting disposed on the rear side of the rear spar, the upper stabilization brace fitting coupled to the side load backup fitting via a second plurality of fasteners 646) extending through the rear spar. a side load backup fitting disposed on the front side of the rear spar; a forward trunnion housing assembly coupled to the rear side of the rear spar; a side load fitting disposed on the rear side of the rear spar, a first end of the side load fitting coupled to the forward trunnion housing assembly, a second end of the side load fitting coupled to side load backup fitting via a first plurality of fasteners extending through the rear spar; and an upper stabilization brace fitting disposed on the rear side of the rear spar, the upper stabilization brace fitting coupled to the side load backup fitting via a second plurality of fasteners 646) extending through the rear spar.
A computer-implemented method, comprising: identifying, by an interrupt handler implemented in hardware and/or firmware of a computing system, an input/output port that signaled an input/output error-containment event caused by an input/output device connected to the input/output port; generating, by the interrupt handler, an error-containment record associated with the error-containment event, the error-containment record including an identification of the input/output port; notifying, by the interrupt handler, an operating system or virtual machine monitor executing on the computing device of the input/output error-containment event by providing, by the interrupt handler to the operating system or virtual machine monitor, the error-containment record; characterised by receiving by the operating system or virtual machine monitor a notification from the driver associated with the input/output device that the driver is able to recover the input/output device; sending, by the operating system or virtual machine monitor to the interrupt handler, an indication that a software stack associated with the input/output port and/or input/output device has been cleared by said operation system or virtual machine monitor; and clearing, by the interrupt handler, an error log associated with the input/output device that experienced the input/output error containment event, and issuing by said interrupt handler suitable commands to cause the input/output port to resume the link from the input/output port to the input/output device. identifying, by an interrupt handler implemented in hardware and/or firmware of a computing system, an input/output port that signaled an input/output error-containment event caused by an input/output device connected to the input/output port; generating, by the interrupt handler, an error-containment record associated with the error-containment event, the error-containment record including an identification of the input/output port; notifying, by the interrupt handler, an operating system or virtual machine monitor executing on the computing device of the input/output error-containment event by providing, by the interrupt handler to the operating system or virtual machine monitor, the error-containment record; characterised by receiving by the operating system or virtual machine monitor a notification from the driver associated with the input/output device that the driver is able to recover the input/output device; sending, by the operating system or virtual machine monitor to the interrupt handler, an indication that a software stack associated with the input/output port and/or input/output device has been cleared by said operation system or virtual machine monitor; and clearing, by the interrupt handler, an error log associated with the input/output device that experienced the input/output error containment event, and issuing by said interrupt handler suitable commands to cause the input/output port to resume the link from the input/output port to the input/output device.
Spotlight, having a lighting head with at least one point light source (3, 3', 3'') and with a housing, which has a first receiving space for operating devices for supplying the light source (3, 3', 3'') with electricity, and a second receiving space for deceiving at least once lighting head, wherein the lighting head is mounted in the second receiving space by means of a guide sled in such a way that it can be moved between a first operating position located within the receiving space and a second operating position, characterized in that the guide sled has guide pins, which engage in the slots, and in that the width: of the slots taper in the direction from the first operating position to the second position, and in that the guide pins lock together with notches at the end of the slots when the lighting head is in the first operating position.