mhurhangee/ep-ind-claims huggingface dataset:
A bar code reading device comprising: a CMOS image sensor array comprising a plurality of pixels in a two-dimensional array, wherein the CMOS image sensor array is operable, in a global shutter mode, to collect image data from a target, wherein, in the global shutter mode, all or substantially all of the plurality of pixels in the CMOS image sensor array are simultaneously exposed in response to an exposure control timing pulse so as to enable the collection of image data in the form of a one dimensional bar code and to enable the collection of image data in the form of a two dimensional bar code; at least one illumination light source configured to illuminate at least a portion of the target in response to an illumination control timing pulse, wherein the exposure control timing pulse and the illumination control timing pulse are coordinated by a control module such that the illumination control timing pulse is transmitted to the at least one illumination light source as a result of the exposure control timing pulse; an autodiscrimination module configured to search the image data; and a bar code decoding module that is configured, in an instance in which at least one marker of the one or more markers is detected by the autodiscrimination module, to decode the image data in accordance with a decoding algorithm associated with the at least one marker. a CMOS image sensor array comprising a plurality of pixels in a two-dimensional array, wherein the CMOS image sensor array is operable, in a global shutter mode, to collect image data from a target, wherein, in the global shutter mode, all or substantially all of the plurality of pixels in the CMOS image sensor array are simultaneously exposed in response to an exposure control timing pulse so as to enable the collection of image data in the form of a one dimensional bar code and to enable the collection of image data in the form of a two dimensional bar code; at least one illumination light source configured to illuminate at least a portion of the target in response to an illumination control timing pulse, wherein the exposure control timing pulse and the illumination control timing pulse are coordinated by a control module such that the illumination control timing pulse is transmitted to the at least one illumination light source as a result of the exposure control timing pulse; an autodiscrimination module configured to search the image data; and a bar code decoding module that is configured, in an instance in which at least one marker of the one or more markers is detected by the autodiscrimination module, to decode the image data in accordance with a decoding algorithm associated with the at least one marker.
Device for limiting (10, 11) the consequences of a fire for limiting the overpressure and depression phenomena when a fire develops in a room, the device comprising a reservoir provided with a vessel containing a liquid, said reservoir comprising one or more chambers referred to as "internal chamber or chambers" (54a, 54b, 54c, 54d, 54e) in communication with said room and one or more other chambers (52a, 52b, 52c, 52d, 53) of the reservoir, the reservoir being arranged such that the internal chambers communicate with one or more of said other chambers and such that a gas flow, generated in particular by pressure phenomena caused by the fire and exchanged between on ore plural internal chamber(s) and one or several of said other chambers, is intended to pass through the liquid contained in the vessel, the device being characterised in that the reservoir comprises at least a first overflow tank and at least a second overflow tank, both integral, placed on either side of the reservoir, each tank being able to receive said liquid when the latter exceeds a predetermined given height in said vessel.
A striking plate assembly for a lock to be secured to a frame, comprising a striking plate, which has a bolt opening arranged in the front surface (2.1) thereof and to which a bolt casing is secured, inside of which casing a body part is movably located, a bolt housing (5.1) forming a stationary part of the body part, and an adjusting screw arrangement operated from the front surface (2.1) of the striking plate for adjusting the bolt housing (5.1) with respect to the striking plate, wherein the adjusting screw arrangement is arranged to be turnably supported on one hand by the striking plate and on the other hand by the bolt casing, characterised in that the adjusting screw arrangement comprises guiding members (7, 8), which are arranged to affect directly the body part so that they adjust the position of the bolt housing (5.1) perpendicularly with respect to the longitudinal axis and parallel to the front face of the striking plate and its bolt opening and at the same time lock the current position of the body part such that separate locking of the moving parts is not necessary.
An adaptable wing (112,114) having a variable geometry for influencing aerodynamic performance, the wing comprising a jointed leading edge having a main pivot, and a wrist joint, with a wing arm (126,128) therebetween, and a distal wing hand depending from the wrist joint; the wing being reciprocally actuable, via the main pivot and wrist joint, between a first state having an extended wing planform and a second state having a tucked wing planform; the wing arm and wing hand comprise engagement members (236,252); the engagement members (236, 252) comprise upper and lower foraminated lugs (254, 256) having the same size and separation; the upper and lower lugs are adapted to receive complementary formations of respective feather ribs using upper and lower spigots (248,250); the wing arm and the wing hand having depending therefrom the feather ribs pivotally coupled thereto; characterised in that each feather rib comprises a cephalically disposed open end, bearing the spigots (248, 250) that transition, via upper and lower cambered sections (272, 274), to a caudally disposed pointed section wherein the upper and lower cambered sections are separated by a supporting strut, and the upper and lower cambered sections (272, 274) are arranged to receive respective feathers.
Method for the additive production of a three-dimensional object by successively layer-wise selective exposure and associated successively layer-wise selective solidification of building material layers from a by means of an energy beam solidifiable powder-like building material using a selective laser melting method (SLM method) or a selective laser sintering method (SLS method), wherein in the context of the additive production of the additively produced three-dimensional object a the additively produced or three-dimensional object directly surrounding support structure is formed by successively layer-wise selective exposure and associated successively layer-wise selective pre-solidification of building material layers from the by means of the energy beam solidifiable building material, wherein the successive layer-by-layer selective solidification of the building material for the formation of the three-dimensional object takes place in a first degree of solidification of the building material and the successive layer-by-layer selective pre-solidification of the building material for the formation of the supporting structure takes place in a second degree of solidification of the building material below the first degree of solidification, wherein the successive layer-by-layer selective pre-solidification of the building material for the formation of the supporting structure is carried out by selective introduction of radiation energy, which heats the building material to a temperature below its melting temperature, characterized in that the second degree of solidification of the building material is chosen low, so that the support structure disintegrates by itself during a unpacking process of the additively produced three-dimensional object, wherein the support structure the additively manufactured or manufactured three-dimensional object is formed completely surrounding. the successive layer-by-layer selective solidification of the building material for the formation of the three-dimensional object takes place in a first degree of solidification of the building material and the successive layer-by-layer selective pre-solidification of the building material for the formation of the supporting structure takes place in a second degree of solidification of the building material below the first degree of solidification, wherein the successive layer-by-layer selective pre-solidification of the building material for the formation of the supporting structure is carried out by selective introduction of radiation energy, which heats the building material to a temperature below its melting temperature, characterized in that the second degree of solidification of the building material is chosen low, so that the support structure disintegrates by itself during a unpacking process of the additively produced three-dimensional object, wherein the support structure the additively manufactured or manufactured three-dimensional object is formed completely surrounding.
An apparatus, comprising: a tether attachment member including a base member and a hub member rotatably coupled to the base member, the base member and the hub each defining at least a portion of a tether passageway through which a portion of a tether extending from a prosthetic heart valve can be received therethrough, the base member defining a locking pin channel that intersects the tether passageway and is in fluid communication therewith; a locking pin disposed at least partially within the locking pin channel, the hub defining a cam channel in which a driver portion of the locking pin is received, the hub configured to rotate relative to the base member such that the cam channel moves the locking pin linearly within the locking pin channel moving the locking pin from a first position in which the locking pin is at a spaced distance from the tether passageway to a second position in which the locking pin intersects the tether passageway and engages a portion of a tether disposed therein to secure the tether to the tether attachment member. a tether attachment member including a base member and a hub member rotatably coupled to the base member, the base member and the hub each defining at least a portion of a tether passageway through which a portion of a tether extending from a prosthetic heart valve can be received therethrough, the base member defining a locking pin channel that intersects the tether passageway and is in fluid communication therewith; a locking pin disposed at least partially within the locking pin channel, the hub defining a cam channel in which a driver portion of the locking pin is received, the hub configured to rotate relative to the base member such that the cam channel moves the locking pin linearly within the locking pin channel moving the locking pin from a first position in which the locking pin is at a spaced distance from the tether passageway to a second position in which the locking pin intersects the tether passageway and engages a portion of a tether disposed therein to secure the tether to the tether attachment member.
A nonaqueous electrolyte for a secondary battery which comprises a nonaqueous solvent containing at least a hexafluorophosphate as an electrolyte lithium salt; from 1 x 10 -2 mol/kg to 0.5 mol/kg of a difluorophosphate salt of an alkali metal, an alkaline earth metal or NR 1 R 2 R 3 R 4 wherein R 1 to R 4 may be the same or different and each represents either an organic group having 1-12 carbon atoms or a hydrogen atom; and carbon dioxide.
A hand-held passenger control unit adapted for use by a passenger on an aircraft, the control unit comprising: a controller; a memory (202, 204); a display panel; and a port for receiving a portable external memory containing audio content, wherein the control unit has a normal mode of operation including at least a first and a second normal mode of operation; wherein in the first normal mode of operation the control unit controls the display panel disposed on the control unit to navigate through a menu displayed on the display panel on the control unit; wherein in the second normal mode of operation, the control unit controls a video display unit that is separate from the control unit and disposed proximate to the passenger; and characterised in that the control unit is configured to have four modes, the normal operation mode entered after receiving a status indicator for passenger operations; a maintenance mode entered after receiving a status indicator for entering maintenance mode; a decompression mode entered after a decompression state is detected; and a degraded functionality mode entered after not receiving a status indicator within a predetermined amount of time. a controller; a memory (202, 204); a display panel; and a port for receiving a portable external memory containing audio content, wherein the control unit has a normal mode of operation including at least a first and a second normal mode of operation; wherein in the first normal mode of operation the control unit controls the display panel disposed on the control unit to navigate through a menu displayed on the display panel on the control unit; wherein in the second normal mode of operation, the control unit controls a video display unit that is separate from the control unit and disposed proximate to the passenger; and characterised in that the control unit is configured to have four modes, the normal operation mode entered after receiving a status indicator for passenger operations; a maintenance mode entered after receiving a status indicator for entering maintenance mode; a decompression mode entered after a decompression state is detected; and a degraded functionality mode entered after not receiving a status indicator within a predetermined amount of time.
A rotating filter cartridge (800, 900, 1100, 1200) comprising: a first endcap (802, 902, 1102, 1204); a second endcap; a body (808, 1108) secured to the first endcap and the second endcap; and filter media (804, 904, 1104, 1202) positioned between the first endcap and the second endcap, the filter media creating a mechanical seal between at least one of the first endcap or the second endcap during rotation of the rotating filter cartridge without the use of a potting material, wherein at least one of the first endcap or the second endcap, and the body, forms a pocket (806, 906, 1106) that radially pinches the filter media to form the mechanical seal. a first endcap (802, 902, 1102, 1204); a second endcap; a body (808, 1108) secured to the first endcap and the second endcap; and filter media (804, 904, 1104, 1202) positioned between the first endcap and the second endcap, the filter media creating a mechanical seal between at least one of the first endcap or the second endcap during rotation of the rotating filter cartridge without the use of a potting material, wherein at least one of the first endcap or the second endcap, and the body, forms a pocket (806, 906, 1106) that radially pinches the filter media to form the mechanical seal.
Manually movable transport trolley which can be stacked with an identical transport trolley in the horizontal direction in a space-saving manner and which is equipped with a chassis, with a pushing device and with at least one receiving device intended for receiving or carrying objects, wherein, in the stacked state, there results a smallest possible distance between two transport trolleys (1, 1') that, in the stacked assembly of the two transport trolleys (1, 1'), gives rise to a rear region and a front region, wherein the rear region is taken up only by the rear inserted transport trolley, and the front region is taken up only by the transport trolley in front, wherein the at least one receiving device is assigned an electronic weighing device which is equipped with at least one first and with at least one second weighing cell (13, 14), is operatively connected to the at least one receiving device and is intended to determine the weight of the objects carried by the at least one receiving device, and wherein at least the at least one first and the at least one second weighing cell (13, 14) are arranged on the at least one receiving device in such a way that, in the stacked state of two identical transport trolleys (1, 1'), the at least one second weighing cell of the inserted transport trolley is outside the front region and that, conversely, the at least one first weighing cell of the transport trolley in front is outside the rear region, characterized in that, in the stacked state of two identical transport trolleys (1, 1'), the at least one first weighing cell of the rear inserted transport trolley is inside the rear region, and in that, conversely, the at least one second weighing cell of the transport trolley in front is inside the front region, wherein the at least one first weighing cell is directed downwards starting from the at least one receiving device, and the at least one second weighing cell is directed upwards starting from the at least one receiving device.
Method for carrying out core drilling in a material by means of drilling apparatuses that use a drill bit, which drill bit is configured with a hollow cylindrical main body, designated below as core barrel, and has, at the front end of the core barrel serving for the abrasion of material, abrasion elements which are secured on the surface of the core barrel and distributed on said surface in a ring shape, said method comprising the following method steps: - executing a forward movement of the drill bit in combination with a rotational movement of the drill bit about its axis by means of a drive, for annular abrasion at the material and formation of a drilling core of the material in the core barrel, - making available a high-pressure blasting medium at the drill bit, characterized by: - generating at least two jets of the blasting medium directed into the interior of the drill bit by means of high-pressure jet nozzles, and - abrading material at the drilling core by means of the blasting medium, wherein abrading of the drilling core takes place at its free end by means of the blasting medium. - executing a forward movement of the drill bit in combination with a rotational movement of the drill bit about its axis by means of a drive, for annular abrasion at the material and formation of a drilling core of the material in the core barrel, - making available a high-pressure blasting medium at the drill bit, characterized by: - generating at least two jets of the blasting medium directed into the interior of the drill bit by means of high-pressure jet nozzles, and - abrading material at the drilling core by means of the blasting medium, wherein abrading of the drilling core takes place at its free end by means of the blasting medium.
An access device for placing a medical article within a body space, comprising: a needle having an elongated needle body with a distal end and a hub from which the needle body extends; a dilator disposed on the needle body, the needle and the dilator being moveable relative to each other from a first position, wherein the distal end of the needle lies distal of the dilator, and a second position wherein the distal end of the needle lies within a dilator shaft, the dilator including a dilator hub and the elongated dilator shaft that extends from the dilator hub; and a locking mechanism operating between the needle and the dilator, the locking mechanism comprising a first member supported on the proximal side of and spaced from the dilator hub and a second member supported by the needle, the first and second members being configured to engage each other to irreversibly prevent proximal and distal movement of the needle relative to the dilator when in the second position, the locking mechanism being configured to allow movement of the needle from the first position toward the second position without engagement by the locking mechanism so as to lessen resistance to the movement. a needle having an elongated needle body with a distal end and a hub from which the needle body extends; a dilator disposed on the needle body, the needle and the dilator being moveable relative to each other from a first position, wherein the distal end of the needle lies distal of the dilator, and a second position wherein the distal end of the needle lies within a dilator shaft, the dilator including a dilator hub and the elongated dilator shaft that extends from the dilator hub; and a locking mechanism operating between the needle and the dilator, the locking mechanism comprising a first member supported on the proximal side of and spaced from the dilator hub and a second member supported by the needle, the first and second members being configured to engage each other to irreversibly prevent proximal and distal movement of the needle relative to the dilator when in the second position, the locking mechanism being configured to allow movement of the needle from the first position toward the second position without engagement by the locking mechanism so as to lessen resistance to the movement.
A polypeptide antagonist of a Na/K ATPase/Src receptor complex, for use in a method for treating obesity, wherein the polypeptide antagonist comprises the sequence of SEQ ID NO: 1, or a functional fragment thereof.
A process for bleaching a biomass of Chlorella microalgae rich in proteins, characterized in that the microalgal biomass is produced under heterotrophic conditions and under continuous fermentation conditions, while decreasing the coloring of said biomass by increasing the μ/μmax growth rate ratio, so as the hue value is less than 40 and the lightness value is greater than 135, the hue and the lightness being defined by the colorimetric perceptual model.
A method for carrying out a test run on a drive train test stand on which a drive train with at least one side shaft is arranged and this side shaft is connected to a dynamometer and the speed of the side shaft is regulated in a control unit, wherein in a simulation model a longitudinal force (F Xi) of a tire of a vehicle wheel simulated with the simulation model and a setpoint speed (n Bi,set) of the dynamometer to be set is calculated and the setpoint speed (n Bi,set) is transferred to the control unit as a setpoint value of the speed control of the dynamometer, wherein a compensation torque (M Ki) is calculated in the control unit and the control unit calculates a torque (M REi) from the setpoint speed (n Bi, set) with a speed controller and a torque (M Bi,soll) to be set with the dynamometer is calculated as the sum of the compensation torque (M Ki) and the torque (M REi) calculated by the speed controller and set by the dynamometer, characterized in that the torque (M Fxi) caused by the longitudinal force (F Xi) and calculated in the simulation model is also transferred to the control unit, and therefrom the compensation torque (M Ki) is calculated in the control unit as a function of the torque (M Fxi) caused by the longitudinal force (F Xi) and a deviation (A Ji) between a moment of inertia (J Bi) of the dynamometer and a moment of inertia (J Ri) of the simulated vehicle wheel, wherein the compensation torque (M Ki) is calculated from the relationship M Ki = J Bi J Ri M Fxi + M Ri − J Bi J Ri M Bi or M Ki = J Bi J Ri M Fxi + 1 − J Bi J Ri M Ri, with a torque (M Ri) acting on the side shaft and a torque (M Bi) acting on the shaft of the dynamometer, or the compensation torque (M Ki) is calculated from the relationship M Ki = M Fxi + J Ri ω̇ Ri - J Bi ω̇ Bi or M Ki = M Fxi +(J Ri - J Bi)ω̇ Ri, with an angular acceleration (ω̇ Ri) acting on the side shaft and an angular acceleration acting (ω̇ Bi) on the shaft of the dynamometer.