mhurhangee/ep-ind-claims huggingface dataset:
A method for selecting mobile communications systems (431, 432) for multiple mobile communications services (410, 420) of a vehicle, the method comprising: obtaining for each of multiple mobile communications services (410, 420) information on a required quality of service, rQoS, of the mobile communications services (410, 420); determining for each of multiple mobile communications systems (431, 432) information on a predicted quality of service, pQoS; selecting from the multiple mobile communications systems (431, 432) a mobile communications system for each of multiple mobile communications services (410, 420) based on the information on the rQoS and the pQoS of the mobile communications system. obtaining for each of multiple mobile communications services (410, 420) information on a required quality of service, rQoS, of the mobile communications services (410, 420); determining for each of multiple mobile communications systems (431, 432) information on a predicted quality of service, pQoS; selecting from the multiple mobile communications systems (431, 432) a mobile communications system for each of multiple mobile communications services (410, 420) based on the information on the rQoS and the pQoS of the mobile communications system.
Arrangement - having an isolated power supply facility comprising: an input for applying an input voltage, an output isolated from the input for outputting an output voltage and a control terminal, to which a control signal can be applied for increasing or decreasing the output voltage, - having a control facility which is connected to the control terminal of the power supply facility and can apply the control signal, and - having a voltage evaluation module connected to the control facility, said voltage evaluation module being connected to the output of the power supply facility and supplying a feedback signal (Srk) to the control facility, said feedback signal relating to the voltage level of the output voltage, characterised in that - the control facility is suited to optionally adjusting one of at least two different target voltage levels at the output of the power supply facility, - the voltage evaluation module is embodied such that it sends a feedback signal (Srk) back to the control facility, with which the exceeding of or failure to reach each of the at least two different target voltage levels at the output of the power supply facility is indicated in each case by a signal changeover of the feedback signal (Srk), and - the control device is suited to adjusting each of the at least two different target voltage levels at the output of the power supply facility by taking the signal changeover of the feedback signal (Srk) into account. - having an isolated power supply facility comprising: an input for applying an input voltage, an output isolated from the input for outputting an output voltage and a control terminal, to which a control signal can be applied for increasing or decreasing the output voltage, - having a control facility which is connected to the control terminal of the power supply facility and can apply the control signal, and - having a voltage evaluation module connected to the control facility, said voltage evaluation module being connected to the output of the power supply facility and supplying a feedback signal (Srk) to the control facility, said feedback signal relating to the voltage level of the output voltage, characterised in that - the control facility is suited to optionally adjusting one of at least two different target voltage levels at the output of the power supply facility, - the voltage evaluation module is embodied such that it sends a feedback signal (Srk) back to the control facility, with which the exceeding of or failure to reach each of the at least two different target voltage levels at the output of the power supply facility is indicated in each case by a signal changeover of the feedback signal (Srk), and - the control device is suited to adjusting each of the at least two different target voltage levels at the output of the power supply facility by taking the signal changeover of the feedback signal (Srk) into account.
One or more electronically-accessible media comprising electronically-executabte instructions for a video renderer that, when executed, precipitate actions comprising: requesting information regarding video processing capabilities from a graphics device driver, wherein the information regarding video processing capabilities includes process amplifier (ProcAmp) capabilities; and receiving the information regarding video processing capabilities from the graphics device driver. requesting information regarding video processing capabilities from a graphics device driver, wherein the information regarding video processing capabilities includes process amplifier (ProcAmp) capabilities; and receiving the information regarding video processing capabilities from the graphics device driver.
An ice maker comprising a storage receptacle in the form of a drawer wherein the ice pieces are stored; an auger shaft which extends between the front and rear walls of the storage receptacle; a front auger and a rear auger which are disposed so as to rotate on the auger shaft; a motor which rotates the front and rear augers (3, 4); and a coupling mechanism which provides a movement connection between the motor shaft and the rear auger, characterized by the coupling mechanism which enables the rear auger to rotate in both directions independently of the front auger and which is configured to transfer the rotational movement of the motor shaft within a certain range of rotation angle only to the rear auger, an auger bush which is disposed between the auger shaft and the rear auger, whereon the rear auger is borne, and which can rotate around the auger shaft in both directions and a pin on the rear surface of the rear auger; and a washer which is disposed on the rear surface of the rear auger so as to limit the rotation of the pin with respect to the auger shaft to a certain rotation angle and which is connected to the auger shaft.
An illuminated cannula system comprising: a cannula comprising: a cannula hub disposed at a proximal end of the cannula and operable to emit visible light; and a tube portion extending from the cannula hub towards a distal end of the cannula; wherein the cannula hub comprises a luminescent container(500, 700) disposed at the proximal end of the cannula, wherein the luminescent container (500, 700) comprises a first reactant and a second reactant, wherein the second reactant is disposed in an interior container disposed within the luminescent container, wherein the interior container separates the second reactant from the first reactant, and wherein the first reactant and the second reactant are operable to react to emit the visible light when the first reactant and the second reactant are combined; wherein the luminescent container (500, 700) is a first luminescent container and wherein the cannula hub further comprises at least one additional luminescent container (500, 700) and wherein the first and the at least one additional luminescent containers (500, 700) extend to a surface of the cannula hub. a cannula hub disposed at a proximal end of the cannula and operable to emit visible light; and a tube portion extending from the cannula hub towards a distal end of the cannula; wherein the cannula hub comprises a luminescent container(500, 700) disposed at the proximal end of the cannula, wherein the luminescent container (500, 700) comprises a first reactant and a second reactant, wherein the second reactant is disposed in an interior container disposed within the luminescent container, wherein the interior container separates the second reactant from the first reactant, and wherein the first reactant and the second reactant are operable to react to emit the visible light when the first reactant and the second reactant are combined; wherein the luminescent container (500, 700) is a first luminescent container and wherein the cannula hub further comprises at least one additional luminescent container (500, 700) and wherein the first and the at least one additional luminescent containers (500, 700) extend to a surface of the cannula hub.
Lamp, in particular floor lamp, with a lamp head comprising lighting means and optics for influencing the light emitted by the lighting means, wherein the lighting means comprise a plurality of LEDs arranged in a matrix-like manner and the optics consist of a reflector system, which is disposed in front of the LEDs and consists of a plurality of pot-shaped individual reflectors that form a grid, wherein each LED is associated with a reflector, wherein the reflector system is configured such that the light is emitted asymmetrically in the forward direction with respect to a first direction, and wherein reflectors located in the edge region of the reflector system emit the light asymmetrically outward with respect to a second direction, which is perpendicular to the first direction, and overall the light is emitted symmetrically with respect to the second direction.
An aircraft, comprising: a cabin galley having a plurality of touch surfaces (102, 104, 106); characterised in that at least one of the touch surfaces includes a copper material; wherein the at least one touch surface is connected to a touch screen interface forming a substrate not including copper material; and wherein the copper material overlays the substrate. a cabin galley having a plurality of touch surfaces (102, 104, 106); characterised in that at least one of the touch surfaces includes a copper material; wherein the at least one touch surface is connected to a touch screen interface forming a substrate not including copper material; and wherein the copper material overlays the substrate.
A portable stamp comprising a stamp housing having a mounting chamber, a lower opening formed on a bottom of the stamp housing and communicating with the mounting chamber, a first sidewall having a guiding slot extending longitudinally and communicating with the mounting chamber, a second sidewall being opposite to the first sidewall, and two lateral sidewalls oppositely formed between the first sidewall and the second sidewall, a driving member longitudinally slidably mounted in the mounting chamber of the stamp housing, an operating member slidably mounted on the first sidewall of the stamp housing and having a handle mounted on an outer surface of the first sidewall of the stamp housing and a connecting rod protruding from an inner surface of the handle, mounted through the guiding slot of the first sidewall, and connected to the driving member, an ink member with ink pivotally mounted to the driving member via a first pivot rod and a first torsion spring and having two opposite side edges, and a stamp seat for mounting a stamp pad with a stamping surface, the stamp seat pivotally mounted to the driving member via a second pivot rod and a second torsion spring, the stamp seat and the ink member selectively arranged side by side in the stamp housing or driven to pivot out of the stamp housing, the portable stamp characterized in that: each of at least one of the lateral sidewalls of the stamp housing has a positioning recess formed in an inner surface of the lateral sidewall and extending through a lower edge of the lateral sidewall; and each of at least one of the side edges of the ink member has a positioning protrusion, each of the at least one positioning protrusion selectively engages in a corresponding one of the at least one positioning recess of the stamp housing. each of at least one of the lateral sidewalls of the stamp housing has a positioning recess formed in an inner surface of the lateral sidewall and extending through a lower edge of the lateral sidewall; and each of at least one of the side edges of the ink member has a positioning protrusion, each of the at least one positioning protrusion selectively engages in a corresponding one of the at least one positioning recess of the stamp housing.
An additive manufacturing device for additively manufacturing a part comprising: a build platform; a recoater operatively connected to the build platform to move relative to the build platform to coat unfused powder onto a build on the build platform, wherein the recoater includes a recoater mount defining a length-wise receptacle therein, and a recoater blade seated in the receptacle; and a blade reel system operatively connected to the recoater to replace the recoater blade in the receptacle during a build on the build platform, and comprising a laser and wherein the laser can selectively fuse part of a last layer of said powder from recoating to said part; characterized in that the blade reel system is mounted stationary relative to the build platform outside of a build area; wherein the recoater is configured to move between a first end and a second end of the build area; wherein said blade reel system includes a first feed reel and a first take up reel at the first end of the build area and a second feed reel and a second take up reel at the second end of the build area; wherein the first feed reel and the second feed reel are configured to feed fresh recoater blade material into the receptacle, thereby replacing used recoater blade material; wherein the blade reel system includes a cutter operatively connected to cut fresh blade material to free the recoater from the blade reel system to recoat the build area using the fresh blade material. a build platform; a recoater operatively connected to the build platform to move relative to the build platform to coat unfused powder onto a build on the build platform, wherein the recoater includes a recoater mount defining a length-wise receptacle therein, and a recoater blade seated in the receptacle; and a blade reel system operatively connected to the recoater to replace the recoater blade in the receptacle during a build on the build platform, and comprising a laser and wherein the laser can selectively fuse part of a last layer of said powder from recoating to said part; characterized in that the blade reel system is mounted stationary relative to the build platform outside of a build area; wherein the recoater is configured to move between a first end and a second end of the build area; wherein said blade reel system includes a first feed reel and a first take up reel at the first end of the build area and a second feed reel and a second take up reel at the second end of the build area; wherein the first feed reel and the second feed reel are configured to feed fresh recoater blade material into the receptacle, thereby replacing used recoater blade material; wherein the blade reel system includes a cutter operatively connected to cut fresh blade material to free the recoater from the blade reel system to recoat the build area using the fresh blade material.
A process for preparing a free-flowing powder containing, on a dry weight basis, per 100 parts by weight of the powder, at least 85 parts by weight, preferably at least 90 parts by weight and more preferably at least 95 parts by weight of at least one deliquescent quaternary ammonium compound, wherein said quaternary ammonium compound is selected from the group consisting from betaine, choline species and tetramethylammonium chloride & bromide, and in which process the free-flowing powder is prepared by drying an aqueous solution of said quaternary ammonium compound to achieve a solid product and by admixing at least one powdery salt of a medium to long chain fatty acid with a multivalent counter ion to said solid product in an amount of at least 0.1 part by weight and less than 10 parts by weight, per 100 parts by weight of said quaternary ammonium compound, characterised in that, before drying said aqueous solution, at least one water-soluble salt of a medium to long chain fatty acid with a univalent counter ion is introduced therein, at least 0.1 part by weight and less than 10 parts by weight, of said water-soluble salt being dissolved in said aqueous solution, per 100 parts by weight of said quaternary ammonium compound.
A method of producing a decellularised tissue scaffold comprising; (i) treating a sample of tissue with an osmotic reagent, and (ii) treating the sample with a detergent, wherein the tissue sample is subjected to oscillation with a displacement of 1 mm or more and a frequency of 3 to 100 Hz during steps (i) and (ii), thereby producing a decellularised tissue scaffold. (i) treating a sample of tissue with an osmotic reagent, and (ii) treating the sample with a detergent,
A knitting machine, in particular of the circular type for knitwear, hosiery or the like, comprising: - a bearing structure; - at least a needle-bearing organ or needle cylinder rotatably mounted to the bearing structure; - a plurality of needles supported by the needle cylinder and mobile parallel to a rotation axis of the needle cylinder for producing a knitted fabric; - at least a command device comprising: - a body of the device configured for movably housing at least an actuator; - at least a command organ movably mounted and associated to the body and destined to interact with one or more organs of the knitting machine, for example one or more needles of the knitting machine; - at least an actuator, movably housed at least partially in the body and destined to controlledly move the command organ, the command device comprising a support frame, associated to the body, characterized in that the support frame at least partially crosses the body of the device, reaching, in the assembly configuration, the bearing structure of the knitting machine, and in that the support frame is configured for increasing the structural solidity of the body. - a bearing structure; - at least a needle-bearing organ or needle cylinder rotatably mounted to the bearing structure; - a plurality of needles supported by the needle cylinder and mobile parallel to a rotation axis of the needle cylinder for producing a knitted fabric; - at least a command device comprising: - a body of the device configured for movably housing at least an actuator; - at least a command organ movably mounted and associated to the body and destined to interact with one or more organs of the knitting machine, for example one or more needles of the knitting machine; - at least an actuator, movably housed at least partially in the body and destined to controlledly move the command organ, - a body of the device configured for movably housing at least an actuator; - at least a command organ movably mounted and associated to the body and destined to interact with one or more organs of the knitting machine, for example one or more needles of the knitting machine; - at least an actuator, movably housed at least partially in the body and destined to controlledly move the command organ,
A vitrectomy apparatus, comprising: a vitrectomy handpiece comprising a vitrectomy cutting device; a sensing arrangement configured to sense pressure; tubing connecting the vitrectomy handpiece to the sensing arrangement; a cut valve connected to the sensing arrangement; and a pressure source configured to provide pressure to the cut valve; wherein the sensing arrangement comprises a sensor and a controller configured to receive data from the sensor and provide selectively timed on and off commands to the cut valve to facilitate a vitrectomy procedure; wherein the controller is configured to monitor pressures encountered and alter cut valve timing based on pressure conditions previously encountered, wherein the controller is configured to monitor and maintain a peak pressure value and trough pressure value encountered, wherein peak pressure encountered represents a maximum pressure encountered and trough pressure comprises a minimum pressure encountered, wherein the controller is further configured to alter cut valve timing based on a pressure encountered relative to the peak pressure value and the trough pressure value, characterised in that the controller is further configured to monitor a time following transition between issuing a command to the cut valve and one from the group consisting of the peak pressure value and the trough pressure value, and altering a future command time for a future command issued to the cut valve based on the time following transition. a vitrectomy handpiece comprising a vitrectomy cutting device; a sensing arrangement configured to sense pressure; tubing connecting the vitrectomy handpiece to the sensing arrangement; a cut valve connected to the sensing arrangement; and a pressure source configured to provide pressure to the cut valve; wherein the sensing arrangement comprises a sensor and a controller configured to receive data from the sensor and provide selectively timed on and off commands to the cut valve to facilitate a vitrectomy procedure; wherein the controller is configured to monitor pressures encountered and alter cut valve timing based on pressure conditions previously encountered, wherein the controller is configured to monitor and maintain a peak pressure value and trough pressure value encountered, wherein peak pressure encountered represents a maximum pressure encountered and trough pressure comprises a minimum pressure encountered, wherein the controller is further configured to alter cut valve timing based on a pressure encountered relative to the peak pressure value and the trough pressure value, characterised in that the controller is further configured to monitor a time following transition between issuing a command to the cut valve and one from the group consisting of the peak pressure value and the trough pressure value, and altering a future command time for a future command issued to the cut valve based on the time following transition.