mhurhangee/ep-ind-claims huggingface dataset:
A method (300; 400) of operating an initiator wireless device, in order to initiate switching of the initiator wireless device and a number of other wireless devices (212, 214, 216), to a new special talkgroup on a common radio channel, the method (300; 400) comprising: receiving (305; 405), at an initiator wireless device, a user initiated input to initiate a new special talkgroup; responsive to receiving (305; 405) the user initiated input, the initiator wireless device automatically transmitting (310; 410) to a radio control manager an initiate switching message including location coordinates for the initiator wireless device; receiving (345; 445), at the initiator wireless device via a message transmitted from the radio control manager, an instruction to switch to a common radio channel in order to group or regroup the initiator wireless device and the number of other wireless devices (212, 214, 216) to the new special talkgroup; responsive to receiving (345; 445) the instruction, the initiator wireless device automatically switching (345; 445) to the common radio channel. receiving (305; 405), at an initiator wireless device, a user initiated input to initiate a new special talkgroup; responsive to receiving (305; 405) the user initiated input, the initiator wireless device automatically transmitting (310; 410) to a radio control manager an initiate switching message including location coordinates for the initiator wireless device; receiving (345; 445), at the initiator wireless device via a message transmitted from the radio control manager, an instruction to switch to a common radio channel in order to group or regroup the initiator wireless device and the number of other wireless devices (212, 214, 216) to the new special talkgroup; responsive to receiving (345; 445) the instruction, the initiator wireless device automatically switching (345; 445) to the common radio channel.
A nozzle for use in a patient interface for delivering breathable gas to a patient and for sealingly engaging within the nasal passage of a patient's nose in use, wherein the nozzle comprises: an upper nozzle portion adapted to extend inside the patient's nasal passage and a thin membrane that surrounds the upper nozzle portion to enhance the seal of the nozzle with the patient's nasal passage; and a conduit for interconnecting the upper nozzle portion with the patient interface; characterized in that each of the upper nozzle portion and the membrane have a concave shape. an upper nozzle portion adapted to extend inside the patient's nasal passage and a thin membrane that surrounds the upper nozzle portion to enhance the seal of the nozzle with the patient's nasal passage; and a conduit for interconnecting the upper nozzle portion with the patient interface; characterized in that each of the upper nozzle portion and the membrane have a concave shape.
Data carrier, in particular a plastics card, having an authenticity feature provided in the data carrier, which feature is personalizable under irradiation with a high-energy beam by changing physical and/or chemical properties, characterized in that a magnetizable authenticity feature is provided in a functional layer as personalizable authenticity feature, which comprises an opto-magnetic effect allowing writing of information, such that at an irradiated location a magnetic second-level feature is brought about together with a macroscopically measurable magnetism.
A spreader bar assembly for a ceiling lift tilt system, including: first and second spreader bars (52, 54), each configured as a support element having first and second ends, a coupling element being provided at each end; and a rigid connector extending between and connecting the first and second spreader bars (52, 54) by hinge couplings (64, 66) allowing rotation of the spreader bars (52, 54) about a first axis parallel to an axis between the first and second ends of each spreader bar (52, 54), wherein the connector secures the first and second spreader bars (52, 54) to one another so as to substantially restrict independent rotational movement of the spreader bars (52, 54) with respect to one another about a vertical axis of the connector to about 10 degrees or less, thereby allowing for synchronized and correlated directional positioning of a patient's head and foot regions when supported by a sling, and wherein the connector is a telescopically extendable connecting structure. first and second spreader bars (52, 54), each configured as a support element having first and second ends, a coupling element being provided at each end; and a rigid connector extending between and connecting the first and second spreader bars (52, 54) by hinge couplings (64, 66) allowing rotation of the spreader bars (52, 54) about a first axis parallel to an axis between the first and second ends of each spreader bar (52, 54), wherein the connector secures the first and second spreader bars (52, 54) to one another so as to substantially restrict independent rotational movement of the spreader bars (52, 54) with respect to one another about a vertical axis of the connector to about 10 degrees or less, thereby allowing for synchronized and correlated directional positioning of a patient's head and foot regions when supported by a sling, and wherein the connector is a telescopically extendable connecting structure.
A method of processing video data, comprising: Obtaining 360-degree video data captured by an omnidirectional camera, wherein a video frame of the 360-degree video data includes an image of a scene, and wherein, in the image, the scene is warped into a circular region of the image; obtaining parameters associated with the omnidirectional camera, wherein the parameters include a quantity of one or more circular regions in the image, a value indicating a quantity of areas within the image that include unusable pixels, and for each of the areas that include unusable pixels a position and size of the respective area within the image that includes unusable pixels; and wherein obtaining the parameters comprises obtaining, for each of the one or more circular regions: a horizontal coordinate of a center of the circular region, a vertical coordinate of a center of the circular region a full radius value, a frame radius value, a scene radius value, a rotation of the scene within the circular region, a flip value, a scaling value, a field-of-view value, a quantity of compression curve points, and a list of pairs of compression_curve_x and compression_curve_y that represent the geometric compression curve in relation to the part of the sphere scene that was captured; encoding the 360-degree video data, wherein encoding includes encoding the circular region of the image; and generating encoded video data, wherein the encoded video data includes the encoded 360-degree video data and the parameters associated with the omnidirectional camera. Obtaining 360-degree video data captured by an omnidirectional camera, wherein a video frame of the 360-degree video data includes an image of a scene, and wherein, in the image, the scene is warped into a circular region of the image; obtaining parameters associated with the omnidirectional camera, wherein the parameters include a quantity of one or more circular regions in the image, a value indicating a quantity of areas within the image that include unusable pixels, and for each of the areas that include unusable pixels a position and size of the respective area within the image that includes unusable pixels; and wherein obtaining the parameters comprises obtaining, for each of the one or more circular regions: a horizontal coordinate of a center of the circular region, a vertical coordinate of a center of the circular region a full radius value, a frame radius value, a scene radius value, a rotation of the scene within the circular region, a flip value, a scaling value, a field-of-view value, a quantity of compression curve points, and a list of pairs of compression_curve_x and compression_curve_y that represent the geometric compression curve in relation to the part of the sphere scene that was captured; encoding the 360-degree video data, wherein encoding includes encoding the circular region of the image; and generating encoded video data, wherein the encoded video data includes the encoded 360-degree video data and the parameters associated with the omnidirectional camera.
A method of producing a mixture comprising: compound having the following Formula: where A represents hydrogen, methyl group or chlorine, and n represents an integer of 1 to 20; and polymerizable compound having the following Formula: where A and n are as defined above wherein compound accounts for 50 mol% or more of the entire mixture, and 1,4-cyclohexanedicarboxylic acid as an impurity accounts for less than 5 mol% of the entire mixture; the method comprising: reacting in a water-immiscible organic solvent 1,4-cyclohexanedicarboxylic acid dichloride with compound having the following formula: where A represents hydrogen, methyl group or chlorine, and n represents an integer of 1 to 20 in the presence of a base to afford a reaction solution; and washing the reaction solution with a buffer solution having a pH of 5.0 to 6.0. compound having the following Formula: where A represents hydrogen, methyl group or chlorine, and n represents an integer of 1 to 20; and polymerizable compound having the following Formula: where A and n are as defined above wherein compound accounts for 50 mol% or more of the entire mixture, and 1,4-cyclohexanedicarboxylic acid as an impurity accounts for less than 5 mol% of the entire mixture; the method comprising: reacting in a water-immiscible organic solvent 1,4-cyclohexanedicarboxylic acid dichloride with compound having the following formula: where A represents hydrogen, methyl group or chlorine, and n represents an integer of 1 to 20 in the presence of a base to afford a reaction solution; and washing the reaction solution with a buffer solution having a pH of 5.0 to 6.0. reacting in a water-immiscible organic solvent 1,4-cyclohexanedicarboxylic acid dichloride with compound having the following formula: where A represents hydrogen, methyl group or chlorine, and n represents an integer of 1 to 20 in the presence of a base to afford a reaction solution; and washing the reaction solution with a buffer solution having a pH of 5.0 to 6.0.
A kit of parts for surgical anchor placement including: a needle having a front end and a trailing end; a length of suture having a first end attached to the trailing end of the needle and a second end provided with a stopper; and a plurality of surgical anchors (126, 130), each surgical anchor including: an anchor body having a lumen extending longitudinally through the anchor body from a first opening in a proximal end to a second opening in a distal end, the anchor body having an outer surface including a plurality of retaining elements located on the outer surface of the anchor body, wherein each of the plurality of surgical anchors (126, 130) is held on the length of suture extending through the lumen of each surgical anchor (126, 130) between the first and the second ends of the suture. a needle having a front end and a trailing end; a length of suture having a first end attached to the trailing end of the needle and a second end provided with a stopper; and a plurality of surgical anchors (126, 130), each surgical anchor including: an anchor body having a lumen extending longitudinally through the anchor body from a first opening in a proximal end to a second opening in a distal end, the anchor body having an outer surface including a plurality of retaining elements located on the outer surface of the anchor body, wherein each of the plurality of surgical anchors (126, 130) is held on the length of suture extending through the lumen of each surgical anchor (126, 130) between the first and the second ends of the suture. an anchor body having a lumen extending longitudinally through the anchor body from a first opening in a proximal end to a second opening in a distal end, the anchor body having an outer surface including a plurality of retaining elements located on the outer surface of the anchor body, wherein each of the plurality of surgical anchors (126, 130) is held on the length of suture extending through the lumen of each surgical anchor (126, 130) between the first and the second ends of the suture.
An apparatus for manufacturing a rubber strip, comprising a rubber extruder having a discharge port for continuously discharging the rubber, and a pair of upper and lower calender rolls for rolling the rubber discharged from the discharge port to form a rubber strip, wherein each of the calender rolls includes a roll main body which is driven to rotate, and a cylindrical outer layer which is concentrically disposed on the outside of the roll main body to roll the rubber by its outer peripheral surface, characterized in that the outer layer is made of a ceramic, the roll main body includes an inner layer portion, and a middle layer disposed on the outside of the inner layer portion, a first gap is provided between the outer layer and the middle layer, a first pair of O-rings is inserted in the first gap for rotating the outer layer integrally with the roll main body, at least one of the inner layer portion and the middle layer is provided with a circumferential groove in which a fluid for changing the temperature of the middle layer is flowed, a second gap is formed between the middle layer and the inner layer portion, a second pair of O-rings is inserted in the second gap formed between the middle layer and the inner layer portion on both sides of the circumferential groove in the axial direction of the calender roll to prevent leakage of the fluid.
A vehicle wheel assembly comprising: an axle; a bearing assembly (26, 28, 44) comprising a bearing spacer defining a compound radius; and a hub (18, 40) configured to rotate relative to the axle and defining a bearing bore (22, 24, 42), wherein the bearing assembly is positioned between the axle and the hub, the bearing spacer being configured to engage with the hub within the bearing bore, and the bearing bore includes a curvilinear surface without a vertical face, and wherein the bearing bore comprises a non-constant radius of curvature defined by a compound radius such that a reaction between the axle and the hub results in a first reaction force F R applied to the hub, the first reaction force F R having a radial component, and a second reaction force F N applied to the hub, the second reaction force F N having both a radial and an axial component. an axle; a bearing assembly (26, 28, 44) comprising a bearing spacer defining a compound radius; and a hub (18, 40) configured to rotate relative to the axle and defining a bearing bore (22, 24, 42), wherein the bearing assembly is positioned between the axle and the hub, the bearing spacer being configured to engage with the hub within the bearing bore, and the bearing bore includes a curvilinear surface without a vertical face, and wherein the bearing bore comprises a non-constant radius of curvature defined by a compound radius such that a reaction between the axle and the hub results in a first reaction force F R applied to the hub, the first reaction force F R having a radial component, and a second reaction force F N applied to the hub, the second reaction force F N having both a radial and an axial component.
A control system, comprising: an engine having a desired operating range; a generator driven by the engine to produce an electrical power output; an engine control module communicatively coupled with the engine, and configured to: change an operating parameter of the engine based on a load command before a load on the engine causes the engine to deviate from the desired operating range; associate the load command with at least one membership function by fuzzificating of the load command; apply a plurality of rules to the associated membership functions; determine a plurality of results from the rules; determining a desired value of the operating parameter based on a combination of the plurality of results by defuzzificating of the plurality of results from the rules; an automatic voltage regulator communicatively coupled with the generator and the engine control module, and configured to: monitor at least one of a voltage output, a current output, and a power factor of the generator; generate the load command based on a change in at least one of the voltage output, the current output, and the power factor; and deliver the load command to the engine control module. an engine having a desired operating range; a generator driven by the engine to produce an electrical power output; an engine control module communicatively coupled with the engine, and configured to: change an operating parameter of the engine based on a load command before a load on the engine causes the engine to deviate from the desired operating range; associate the load command with at least one membership function by fuzzificating of the load command; apply a plurality of rules to the associated membership functions; determine a plurality of results from the rules; determining a desired value of the operating parameter based on a combination of the plurality of results by defuzzificating of the plurality of results from the rules; change an operating parameter of the engine based on a load command before a load on the engine causes the engine to deviate from the desired operating range; associate the load command with at least one membership function by fuzzificating of the load command; apply a plurality of rules to the associated membership functions; determine a plurality of results from the rules; determining a desired value of the operating parameter based on a combination of the plurality of results by defuzzificating of the plurality of results from the rules; an automatic voltage regulator communicatively coupled with the generator and the engine control module, and configured to: monitor at least one of a voltage output, a current output, and a power factor of the generator; generate the load command based on a change in at least one of the voltage output, the current output, and the power factor; and deliver the load command to the engine control module. monitor at least one of a voltage output, a current output, and a power factor of the generator; generate the load command based on a change in at least one of the voltage output, the current output, and the power factor; and deliver the load command to the engine control module.
A conjugate, characterized in that the conjugate is prepared by conjugating HSP90 inhibitory peptide with cytotoxic agents via a linker, wherein the amino acid sequence of the HSP90 inhibitory peptide is LPLTPLP.
A control device (10.SC) for the individual safety monitoring of a manipulator, in particular a robot, characterized by a part configured by the manufacturer, as well as a part configurable by a user, wherein the part configured by the manufacturer (10.SC) ensures a basic safety functionality of the manipulator independently of the user configuration, and wherein the part configured by the manufacturer has a logical AND or OR connection with an output of the part configurable by a user.
An isolated and purified polynucleotide encoding a feline T1 R receptor polypeptide comprising: a) the nucleotide sequence of SEQ ID NO:1 or SEQ ID NO:99, b) a variant of the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 having at least 98% identity to the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 and encoding a polypeptide having substantially the same biological activity as a polypeptide encoded by the nucleotide sequence of SEQ ID NO:1 or SEQ ID NO:99. c) a variant of the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 having at least 98% identity to the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 and encoding a polypeptide conferring modified taste perception to one or more taste stimuli relative to a polypeptide encoded by the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99, or d) a nucleotide sequence encoding the amino acid sequence of SEQ ID NO:2. a) the nucleotide sequence of SEQ ID NO:1 or SEQ ID NO:99, b) a variant of the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 having at least 98% identity to the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 and encoding a polypeptide having substantially the same biological activity as a polypeptide encoded by the nucleotide sequence of SEQ ID NO:1 or SEQ ID NO:99. c) a variant of the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 having at least 98% identity to the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99 and encoding a polypeptide conferring modified taste perception to one or more taste stimuli relative to a polypeptide encoded by the polynucleotide of SEQ ID NO:1 or SEQ ID NO:99, or d) a nucleotide sequence encoding the amino acid sequence of SEQ ID NO:2.
A remote auxiliary power unit startup circuit comprising: a momentary switch operable to couple a first node to a ground to initiate an activation; a latching relay operable to: couple the first node to the ground in response to the activation; and decouple the first node from the ground in response to a deactivation of a second node; a bi-polar relay operable to couple an auxiliary power unit to: a hot battery in response to the activation; and a main battery bus in response to the deactivation; and an unlatching relay operable to: couple the second node to the hot battery; and initiate the deactivation by decoupling the second node from the hot battery in response to the auxiliary power unit starting. a momentary switch operable to couple a first node to a ground to initiate an activation; a latching relay operable to: couple the first node to the ground in response to the activation; and decouple the first node from the ground in response to a deactivation of a second node; couple the first node to the ground in response to the activation; and decouple the first node from the ground in response to a deactivation of a second node; a bi-polar relay operable to couple an auxiliary power unit to: a hot battery in response to the activation; and a main battery bus in response to the deactivation; and a hot battery in response to the activation; and a main battery bus in response to the deactivation; and an unlatching relay operable to: couple the second node to the hot battery; and initiate the deactivation by decoupling the second node from the hot battery in response to the auxiliary power unit starting. couple the second node to the hot battery; and initiate the deactivation by decoupling the second node from the hot battery in response to the auxiliary power unit starting.
Catheter for the directional conductance of a bodily fluid, comprising a sheath having an inner chamber and a frame, - the sheath having at least three openings (5, 7, 9) and being formed as a conduit for the bodily fluid at least in a region between a first opening and a second opening, - a non-return valve being arranged at the second opening, - the sheath having a pump chamber portion, - the second opening being arranged in the pump chamber portion of the sheath, characterized in that - the non-return valve comprises a valve film, - the valve film is arranged inside the sheath such that the non-return valve acts as an inlet valve, - the valve film is fastened to the sheath at least in part such that the second opening can be fully covered by the film. - the sheath having at least three openings (5, 7, 9) and being formed as a conduit for the bodily fluid at least in a region between a first opening and a second opening, - a non-return valve being arranged at the second opening, - the sheath having a pump chamber portion, - the second opening being arranged in the pump chamber portion of the sheath, - the non-return valve comprises a valve film, - the valve film is arranged inside the sheath such that the non-return valve acts as an inlet valve, - the valve film is fastened to the sheath at least in part such that the second opening can be fully covered by the film.