mhurhangee/ep-ind-claims huggingface dataset:
An additive injection device for an injection molding system comprising: an additive injection unit including one or more additive tanks, each having a supply of an additive fluid (154; one or more additive injectors in fluid communication with the one or more additive tanks, each of which receives and injects an additive fluid material into an injection molding machine; a common manifold connecting each of the one or more additive tanks and the one or more additive injectors; and one or more additive pumps that pump the additive fluid through the one or more additive injectors; a controller adapted to control operation of the additive injection device; and one or more sensors (128, 129) coupled to the additive injection device and the controller; wherein at least one of the one or more sensors (128, 129) is adapted to measure at least one non-time dependent variable during an injection mold cycle; wherein the controller is adapted to commence an additive injection profile upon the at least one non-time dependent variable reaching a threshold value. one or more additive tanks, each having a supply of an additive fluid (154; one or more additive injectors in fluid communication with the one or more additive tanks, each of which receives and injects an additive fluid material into an injection molding machine; a common manifold connecting each of the one or more additive tanks and the one or more additive injectors; and one or more additive pumps that pump the additive fluid through the one or more additive injectors; a controller adapted to control operation of the additive injection device; and one or more sensors (128, 129) coupled to the additive injection device and the controller; wherein at least one of the one or more sensors (128, 129) is adapted to measure at least one non-time dependent variable during an injection mold cycle; wherein the controller is adapted to commence an additive injection profile upon the at least one non-time dependent variable reaching a threshold value.
Mains-powered cylinder vacuum cleaner having a housing, comprising a rear wall that can be used as a stand surface and comprising side walls, a plug chamber for accommodating a mains plug being arranged in the rear wall, characterised in that the access opening of the plug chamber extends as far as into one of the side walls of the housing.
An excavator comprising: a lower traveling body; an upper turning body mounted on the lower traveling body; an attachment (4, 5, 6) attached to the upper turning body; an attitude detecting device configured to detect an attitude of the attachment (4, 5, 6) including a bucket; characterized in a control device configured to so control a toe angle (α) of the bucket as to close the bucket according to an excavation stage, using an output of the attitude detecting device. a lower traveling body; an upper turning body mounted on the lower traveling body; an attachment (4, 5, 6) attached to the upper turning body; an attitude detecting device configured to detect an attitude of the attachment (4, 5, 6) including a bucket;
Breathing aid apparatus including at least one expansion chamber (10, 110), said expansion chamber comprising a main section (16, 116) and at least two openings (12, 112 and 14, 114), for connecting said expansion chamber (10, 110) to the air flow ducts of said apparatus, such that the air enters into a much larger volume when passing from a duct to within said main section, thus reducing the noise emitted due to the air flowing through said apparatus; characterised in that said expansion chamber (10, 110) is made from a material with a hardness of 15 to 80 Shore and a thickness of 0.075 to 3 mm, thereby imparting flexibility to said expansion chamber (10, 110) and thus reducing the vibrations present at one of the openings (12, 112) of said expansion chamber (10, 110) during their transmission to the other opening (14, 114) by absorption by the walls of said expansion chamber (10, 110).
Method for starting up a gasifying reactor with a plurality of burners, characterized in that each burner is charged with combustible dust from a metering vessel via a dense-flow feed line (51, 52, 53, 54) assigned to it and with combustible gas via a gas feed line (62, 63), wherein the apparatus has for each dense-flow feed line at least one admixing device for a combustible gas (62, 63) for regulating a combustible gas quantity, wherein a burner of the gasifying reactor is operated during ignition at a "minimum outlet velocity" at the burner mouth that lies in the range from 3 to 5 m/s, wherein the individual burners are ignited in a lower load range, that is to say the minimum possible fuel load for an individual burner is from 1% to 30% of the maximum load of the individual burner, which is defined by the maximum fuel load at a maximum outlet velocity, accordingly a fuel mixture comprising combustible dust and combustible gas is provided before a point in time of igniting a burner, and wherein a first composition comprising combustible dust and combustible gas with which a first burner is charged for igniting is regulated, in dependence on the fuel load that is supplied to the second burner for igniting, after the igniting of a second burner, which is charged with a second composition comprising combustible dust and combustible gas, following the igniting of the first burner, so that the starting up of each of the plurality of burners of the gasifying reactor takes place with regulated adaptation of the supply of the fuel load to the previously ignited burner, wherein the fuel load to the previously ignited burners is regulated by - determining gas quantities and/or compositions thereof of a syngas generated in the gasifying reactor by means of measuring instruments arranged downstream of the gasifying reactor ahead of process stages arranged thereafter and - output of the measured values recorded by the measuring instruments to an open-loop and closed-loop control unit for the combustible-dust-quantity and combustible-gas flows for the burners and - comparing the measured values with corresponding setpoint values and, if the measured values do not coincide with the setpoint values, adapting the combustible-dust-quantity and combustible-gas flows for the burners by the open-loop and closed-loop control unit when igniting further burners. - determining gas quantities and/or compositions thereof of a syngas generated in the gasifying reactor by means of measuring instruments arranged downstream of the gasifying reactor ahead of process stages arranged thereafter and - output of the measured values recorded by the measuring instruments to an open-loop and closed-loop control unit for the combustible-dust-quantity and combustible-gas flows for the burners and - comparing the measured values with corresponding setpoint values and, if the measured values do not coincide with the setpoint values, adapting the combustible-dust-quantity and combustible-gas flows for the burners by the open-loop and closed-loop control unit
A nucleic acid molecule that encodes a variant squalene synthase enzyme, wherein the nucleic acid molecule is at least 95% identical to the nucleotide sequence set forth in Figure 2 consisting of one or more nucleic acid modifications selected from: A691G/G748T/T786A/A1114T/T1213C/T1290C, C72A/110ΔA/G801A, T989A/G1112A/G1220A/T1233C, T786A/A1025G/T1056A/A1068G/A1203G, T886C/A969G/T1075C/A1114T, T84A/A283T/T424C/A440G/T1076C, A619T/T634C/C962T, A150T/T410G/G411T/T1248C and C510T/T573C/A918G/A997G and wherein the variant enzyme: comprises one or more amino acid substitution(s) selected from among E149G/G168V/Y181N/Q290L/I323T, V186I, Y330H, Y181N/L271I/S275G/N320D, M214T/I242V/V277A/Q290L, E13V/L60P, D125V/L130P, V56L/S335P and H89Y/F110L/R225G/K251G compared to the squalene synthase enzyme whose sequence is set forth in Figure 2; and exhibits reduced cellular squalene synthase activity compared to the enzyme that does not comprise the one or more amino acid substitution(s), whereby: the variant enzyme, when present and expressed in vivo in a eukaryotic microbial host as the only squalene synthase species, catalyzes the synthesis of squalene at a sufficiently high rate that supplementation of the eukaryotic microbial host with a sterol is not required for growth, wherein the eukaryotic microbial host is a fungal microbial host; and the eukaryotic microbial host produces a terpene product in medium lacking a sterol. A691G/G748T/T786A/A1114T/T1213C/T1290C, C72A/110ΔA/G801A, T989A/G1112A/G1220A/T1233C, T786A/A1025G/T1056A/A1068G/A1203G, T886C/A969G/T1075C/A1114T, T84A/A283T/T424C/A440G/T1076C, A619T/T634C/C962T, A150T/T410G/G411T/T1248C and C510T/T573C/A918G/A997G comprises one or more amino acid substitution(s) selected from among E149G/G168V/Y181N/Q290L/I323T, V186I, Y330H, Y181N/L271I/S275G/N320D, M214T/I242V/V277A/Q290L, E13V/L60P, D125V/L130P, V56L/S335P and H89Y/F110L/R225G/K251G compared to the squalene synthase enzyme whose sequence is set forth in Figure 2; and the variant enzyme, when present and expressed in vivo in a eukaryotic microbial host as the only squalene synthase species, catalyzes the synthesis of squalene at a sufficiently high rate that supplementation of the eukaryotic microbial host with a sterol is not required for growth, wherein the eukaryotic microbial host is a fungal microbial host; and the eukaryotic microbial host produces a terpene product in medium lacking a sterol.
Operating device (125, 225, 325) for an electrical device, having: - a flat control panel that is closed and at least regionally transparent, - lighting means (36, 38, 136, 138, 236, 238, 338) underneath the control panel in order to shine through the control panel from below, - at least one holding magnet (132, 232) underneath the control panel, - a movable operating element (11, 111, 411) that is arranged on the front side of the control panel so as to be able to move with respect to the lighting means and with respect to the at least one holding magnet, wherein the operating element is held magnetically, - at least one counter-magnet (15, 115, 415) in or on the operating element (11, 111, 411) for interacting with the at least one holding magnet (132, 232) through attractive magnetic force, such that the operating element, in the case of a movement for operation, is guided by an attractive magnetic force between the holding magnet (132, 232) and the counter-magnet (15, 115, 415), and such that the operating element is held on the control panel, - sensor means (34, 134, 234) on or underneath the control panel, wherein the sensor means are designed to detect a position or a rotational position of the operating element (11, 111, 411), wherein the operating element (11, 111, 411) is transparent in a direction that runs from the lighting means (36, 38, 136, 138, 236, 238, 338) to the operating element, wherein, for this purpose, the operating element has a plurality of transparent regions (20, 120, 420) that are partitioned against each other or separated from one another without transmitting light between each other, characterized in that the transparent regions of the operating element (11, 111, 411) are formed by a multiplicity of light guides (20, 120, 420) that are arranged in parallel and bearing against one another inside the operating element with an alignment parallel to one another. - a flat control panel that is closed and at least regionally transparent, - lighting means (36, 38, 136, 138, 236, 238, 338) underneath the control panel in order to shine through the control panel from below, - at least one holding magnet (132, 232) underneath the control panel, - a movable operating element (11, 111, 411) that is arranged on the front side of the control panel so as to be able to move with respect to the lighting means and with respect to the at least one holding magnet, wherein the operating element is held magnetically, - at least one counter-magnet (15, 115, 415) in or on the operating element (11, 111, 411) for interacting with the at least one holding magnet (132, 232) through attractive magnetic force, such that the operating element, in the case of a movement for operation, is guided by an attractive magnetic force between the holding magnet (132, 232) and the counter-magnet (15, 115, 415), and such that the operating element is held on the control panel, - sensor means (34, 134, 234) on or underneath the control panel, wherein the sensor means are designed to detect a position or a rotational position of the operating element (11, 111, 411),
A gas turbine for aeronautic engines comprising a stator comprising an outer casing delimited by an outer lateral surface thereof having a longitudinal generatrix and air cooling means for said outer casing, said cooling means comprising a plurality of circumferential tubes for distributing cooling air on said outer lateral surface and arranged externally to the outer lateral surface itself; each circumferential tube being provided with a plurality of outlets (12; 30) of respective cooling airflows incident on corresponding portions of said outer lateral surface, each said surface portion being concave with the concavity facing the respective said outlet and partially delimiting a respective circumferential channel) inside which said airflows impact; said circumferential tubes being arranged externally to said longitudinal generatrix and said circumferential channels, characterized in that said cooling means further comprising two groups of further circumferential channels arranged on opposite longitudinal sides of said circumferential channel; said further circumferential channels having smaller or equal transversal passageway half-sections than those of the respective said circumferential channel.
An automated specimen preparation system for preparing a specimen from a sample in a sample container, the system comprising: a specimen transfer device configured for holding a specimen collector thereon and for being positioned within the sample container, wherein the specimen transfer device comprises a central bore having an open distal end and a closed proximal end, a pressure monitoring port fluidly coupled to the central bore at the proximal end of the central bore, and a fluid waste evacuation port fluidly coupled to the proximal end of the central bore; and a vacuum source; characterized in that the vacuum source is fluidly coupled to the fluid waste evacuation port; the pressure monitoring port comprises a portion with a reduced diameter as compared to the remainder of the pressure monitoring port coupled directly to the central bore; and the system further comprises a pressure monitoring device fluidly coupled to the pressure monitoring port. a specimen transfer device configured for holding a specimen collector thereon and for being positioned within the sample container, wherein the specimen transfer device comprises a central bore having an open distal end and a closed proximal end, a pressure monitoring port fluidly coupled to the central bore at the proximal end of the central bore, and a fluid waste evacuation port fluidly coupled to the proximal end of the central bore; and a vacuum source; characterized in that the vacuum source is fluidly coupled to the fluid waste evacuation port; the pressure monitoring port comprises a portion with a reduced diameter as compared to the remainder of the pressure monitoring port coupled directly to the central bore; and the system further comprises a pressure monitoring device fluidly coupled to the pressure monitoring port.
A method of wireless communication between a scheduling entity and a plurality of scheduled entities in a cell utilizing a time division duplex, TDD, carrier, wherein the TDD carrier comprises a plurality of slots, the method comprising: configuring an uplink transmission duration of a slot structure for a scheduled entity of the plurality of scheduled entities based on a propagation delay between the scheduling entity and the scheduled entity, wherein the slot structure comprises an uplink-centric slot structure, and wherein configuring the uplink transmission duration of the slot structure for the scheduled entity further comprises: configuring a downlink burst of the uplink-centric slot structure for the scheduled entity based on the propagation delay to comprise downlink control information, DCI, within only a first symbol of the downlink burst or within more than one symbol of the downlink burst based on the propagation delay; transmitting slot structure configuration information indicating the uplink-centric slot structure comprising the uplink transmission duration to the scheduled entity; and communicating with the scheduled entity utilizing the uplink-centric slot structure. configuring an uplink transmission duration of a slot structure for a scheduled entity of the plurality of scheduled entities based on a propagation delay between the scheduling entity and the scheduled entity, wherein the slot structure comprises an uplink-centric slot structure, and wherein configuring the uplink transmission duration of the slot structure for the scheduled entity further comprises: configuring a downlink burst of the uplink-centric slot structure for the scheduled entity based on the propagation delay to comprise downlink control information, DCI, within only a first symbol of the downlink burst or within more than one symbol of the downlink burst based on the propagation delay; transmitting slot structure configuration information indicating the uplink-centric slot structure comprising the uplink transmission duration to the scheduled entity; and communicating with the scheduled entity utilizing the uplink-centric slot structure. configuring a downlink burst of the uplink-centric slot structure for the scheduled entity based on the propagation delay to comprise downlink control information, DCI, within only a first symbol of the downlink burst or within more than one symbol of the downlink burst based on the propagation delay; transmitting slot structure configuration information indicating the uplink-centric slot structure comprising the uplink transmission duration to the scheduled entity; and communicating with the scheduled entity utilizing the uplink-centric slot structure.
A performance-enhanced computing system comprising: a display; a two-dimensional texture memory, wherein the 2D texture memory includes a stencil buffer; and a graphics pipeline coupled to the display, and logic to: determine, during a first pass that involves a depth analysis of a scene to be rendered, a 2D texture value (604a, 604b), wherein the 2D texture value is a stencil value, and use, during a second pass that involves a shader execution, the 2D texture value (604a, 604b) to control, via the stencil buffer, a coarse pixel size of the graphics pipeline, including applying the 2D texture value (604a, 604b) to a location in the 2D texture memory that corresponds to a pixel in the scene being rendered by the graphics pipeline. a display; a two-dimensional texture memory, wherein the 2D texture memory includes a stencil buffer; and a graphics pipeline coupled to the display, and logic to: determine, during a first pass that involves a depth analysis of a scene to be rendered, a 2D texture value (604a, 604b), wherein the 2D texture value is a stencil value, and use, during a second pass that involves a shader execution, the 2D texture value (604a, 604b) to control, via the stencil buffer, a coarse pixel size of the graphics pipeline, including applying the 2D texture value (604a, 604b) to a location in the 2D texture memory that corresponds to a pixel in the scene being rendered by the graphics pipeline. determine, during a first pass that involves a depth analysis of a scene to be rendered, a 2D texture value (604a, 604b), wherein the 2D texture value is a stencil value, and use, during a second pass that involves a shader execution, the 2D texture value (604a, 604b) to control, via the stencil buffer, a coarse pixel size of the graphics pipeline, including applying the 2D texture value (604a, 604b) to a location in the 2D texture memory that corresponds to a pixel in the scene being rendered by the graphics pipeline.
Cage-door/shaft-door coupling (25; 55) for use in a lift installation, comprising: - a first pivot lever (29; 59) pivotably mounted at an axis of rotation associated therewith, wherein the first pivot lever (29; 59) has a joint point, - a second pivot lever pivotably mounted at an axis of rotation associated therewith, wherein the second pivot lever has a joint point, the joint points (36, 36') of the first and second pivot levers (29, 59, 29') and the axes (50, 50') of rotation associated with the two pivot levers (29, 59, 29') representing corner points of a parallelogram in a plane extending at right angles to these axes (50, 50') of rotation, and - a first entrainer runner mounted at the joint points (36, 36'), characterised in that the first pivot lever (29; 59) comprises a base member (30; 60) and a setting element (32; 62) fastened to the base member (30; 60) by way of a settable fixing means (34; 64) and wherein the settable fixing means (34; 64) enables change in a spacing between the joint point and the associated axis of rotation. - a first pivot lever (29; 59) pivotably mounted at an axis of rotation associated therewith, wherein the first pivot lever (29; 59) has a joint point, - a second pivot lever pivotably mounted at an axis of rotation associated therewith, wherein the second pivot lever has a joint point, the joint points (36, 36') of the first and second pivot levers (29, 59, 29') and the axes (50, 50') of rotation associated with the two pivot levers (29, 59, 29') representing corner points of a parallelogram in a plane extending at right angles to these axes (50, 50') of rotation, and - a first entrainer runner mounted at the joint points (36, 36'), characterised in that the first pivot lever (29; 59) comprises a base member (30; 60) and a setting element (32; 62) fastened to the base member (30; 60) by way of a settable fixing means (34; 64) and wherein the settable fixing means (34; 64) enables change in a spacing between the joint point and the associated axis of rotation.