mhurhangee/ep-ind-claims huggingface dataset:
A method for generating clock signals in a wireless communication device comprising; generating an uncorrected reference clock signal; generating at least one frequency correction value corresponding to a frequency error in said uncorrected reference clock signal; distributing the uncorrected reference clock signal to system parts of the wireless communication device; distributing the at least one frequency correction value to at least system parts having a need to produce a clocking signal with improved accuracy compared to the uncorrected reference clock signal; and producing a clocking signal based on said uncorrected clock signal and said at least one frequency correction value in system parts having a need to produce a clocking signal with improved accuracy compared to the uncorrected reference clock signal and producing a clocking signal based on only said uncorrected clock signal in system parts having no need to produce a clocking signal with improved accuracy compared to the uncorrected reference clock signal; wherein the generating at least one radio frequency clock signal based on said uncorrected clock signal and said at least one frequency correction value in one of said parts is for receiving and transmitting radio frequency signals; and the method further comprises generating, independently of said at least one radio frequency clock signal, a baseband timing signal based on said uncorrected reference clock signal and said at least one frequency correction value, for clocking baseband signal processing circuits. generating an uncorrected reference clock signal; generating at least one frequency correction value corresponding to a frequency error in said uncorrected reference clock signal; distributing the uncorrected reference clock signal to system parts of the wireless communication device; distributing the at least one frequency correction value to at least system parts having a need to produce a clocking signal with improved accuracy compared to the uncorrected reference clock signal; and producing a clocking signal based on said uncorrected clock signal and said at least one frequency correction value in system parts having a need to produce a clocking signal with improved accuracy compared to the uncorrected reference clock signal and producing a clocking signal based on only said uncorrected clock signal in system parts having no need to produce a clocking signal with improved accuracy compared to the uncorrected reference clock signal; wherein the generating at least one radio frequency clock signal based on said uncorrected clock signal and said at least one frequency correction value in one of said parts is for receiving and transmitting radio frequency signals; and the method further comprises generating, independently of said at least one radio frequency clock signal, a baseband timing signal based on said uncorrected reference clock signal and said at least one frequency correction value, for clocking baseband signal processing circuits.
Device for testing electronic components, comprising: at least two mechanical transfer elements (5a, 5b, 90a, 90b), each of which respectively can be loaded with an electronic component at a separate one of two different loading positions (92a; 92b) spatially separate from one another, characterised in that a common test position is provided for the electronic components into which the two transfer elements (5a, 5b) can be moved, and the device is designed so that it is able to move the transfer elements (5a, 5b) between the loading position (92a; 92b) and the test position, and the transfer elements are disposed so that the electronic components are able to drop into the transfer elements under the effect of gravity and drop out of them under the effect of gravity. at least two mechanical transfer elements (5a, 5b, 90a, 90b), each of which respectively can be loaded with an electronic component at a separate one of two different loading positions (92a; 92b) spatially separate from one another, characterised in that a common test position is provided for the electronic components into which the two transfer elements (5a, 5b) can be moved, and the device is designed so that it is able to move the transfer elements (5a, 5b) between the loading position (92a; 92b) and the test position, and the transfer elements are disposed so that the electronic components are able to drop into the transfer elements under the effect of gravity and drop out of them under the effect of gravity.
Method for drawing in thread after the warp beam replacement in a warp knitting machine, comprising the steps: - connecting old warp threads, which are passed through eyelets of guide needles fastened to a guide bar of the warp knitting machine and form a knitted product drawn into a product draw-off device of the warp knitting machine, to replacement warp threads which belong to a warp beam newly inserted into the warp knitting machine, - drawing in the replacement warp threads, with the knitted product being drawn off by the product draw-off device, so that the old warp threads draw the replacement warp threads though the eyelets of the guide needles, characterised in that - during the drawing in of the replacement warp threads the warp beam is set into rotation by means of a warp beam drive of the warp knitting machine, so that the replacement warp threads are actively released by the warp beam, and in that - before the knitted product is drawn off, for the replacement warp threads to be drawn through the eyelets, all the stitches are knocked off by knitting needles of the warp knitting machine. - connecting old warp threads, which are passed through eyelets of guide needles fastened to a guide bar of the warp knitting machine and form a knitted product drawn into a product draw-off device of the warp knitting machine, to replacement warp threads which belong to a warp beam newly inserted into the warp knitting machine, - drawing in the replacement warp threads, with the knitted product being drawn off by the product draw-off device, so that the old warp threads draw the replacement warp threads though the eyelets of the guide needles, - during the drawing in of the replacement warp threads the warp beam is set into rotation by means of a warp beam drive of the warp knitting machine, so that the replacement warp threads are actively released by the warp beam, and in that - before the knitted product is drawn off, for the replacement warp threads to be drawn through the eyelets, all the stitches are knocked off by knitting needles of the warp knitting machine.
A vertical wind turbine system comprising: a vertical mast and two or more turbine units supported on the mast; wherein the turbine units comprise a carousel-carrier and a carousel rotatably supported on the carousel-carrier, the carousel comprises a carousel-hub, a pair of carousel arms extending from the carousel-hub, and a carousel blade extending between the pair of carousel arms, the mast comprises a number of winches, and a first turbine unit comprises a number of winch couplers that receive one or more first winch cables from the number of winches, and is moveable along a vertical height of the mast under the power of the winches, characterized in that a second turbine unit comprises a number of winch couplers that receive one or more second winch cables from the number of winches, and is moveable along a vertical height of the mast under the power of the winches. a vertical mast and two or more turbine units supported on the mast; wherein the turbine units comprise a carousel-carrier and a carousel rotatably supported on the carousel-carrier, the carousel comprises a carousel-hub, a pair of carousel arms extending from the carousel-hub, and a carousel blade extending between the pair of carousel arms, the mast comprises a number of winches, and a first turbine unit comprises a number of winch couplers that receive one or more first winch cables from the number of winches, and is moveable along a vertical height of the mast under the power of the winches, characterized in that a second turbine unit comprises a number of winch couplers that receive one or more second winch cables from the number of winches, and is moveable along a vertical height of the mast under the power of the winches.
A control device for a machine tool provided in a machine tool having a cutting tool for cutting a workpiece, rotating means for relatively rotating the cutting tool and the workpiece, feeding means for feeding the cutting tool and the workpiece in a predetermined feed direction, and vibration means for relatively reciprocally vibrating the cutting tool and the workpiece, the control device having a control section to make the machine tool machine the workpiece via the relative rotation of the cutting tool and the workpiece and via the feeding of the cutting tool to the workpiece with the reciprocal vibration, wherein the control device comprises: setting means for utilizing a number of rotations of the relative rotation, a number of vibrations of the reciprocal vibration per rotation of the relative rotation, and a vibration frequency (f) dependent on a period in which the control device can execute an operating instruction when the workpiece is machined as parameters and for setting values of two of the parameters to the control section, wherein the number of rotations is inversely proportional to the number of vibrations with a constant being the vibration frequency (f) and correcting means for setting the remaining one of the parameters to a predetermined value on the basis of the values of the two of the parameters set by the setting means and correcting the values of the two of the parameters set by the setting means to predetermined values on the basis of the value of the remaining one of the parameters. setting means for utilizing a number of rotations of the relative rotation, a number of vibrations of the reciprocal vibration per rotation of the relative rotation, and a vibration frequency (f) dependent on a period in which the control device can execute an operating instruction when the workpiece is machined as parameters and for setting values of two of the parameters to the control section, wherein the number of rotations is inversely proportional to the number of vibrations with a constant being the vibration frequency (f) and correcting means for setting the remaining one of the parameters to a predetermined value on the basis of the values of the two of the parameters set by the setting means and correcting the values of the two of the parameters set by the setting means to predetermined values on the basis of the value of the remaining one of the parameters.
A thermal energy storage system comprising a thermal energy store containing a single or a plurality of battery casings having internal heat exchangers and phase change materials and controlling means for controlling the operation of said thermal energy storage system, wherein each of said single or said plurality of battery casings independently contains a battery comprising one or more heat exchangers anchored within said single or said plurality of battery casings, a phase change material and means for protection against over pressurisation of said battery, and wherein said controlling means is an integral system controller and where battery pressure and average temperature provide an indication of the state of charge of the battery, wherein the integral system controller utilises input temperature sensors and diverter valves within the thermal energy storage system to control efficient charging of the individual batteries within the thermal energy system using pre-defined rules, the integral system controller also uses output temperature sensors to determine the energy delivered by each battery within the thermal energy system and the residual energy in each of said batteries during discharging, and the temperature sensors are also used for calculating the energy stored and the power input of each individual battery within the thermal energy system as well as of the overall battery system. wherein each of said single or said plurality of battery casings independently contains a battery comprising one or more heat exchangers anchored within said single or said plurality of battery casings, a phase change material and means for protection against over pressurisation of said battery, and wherein said controlling means is an integral system controller and where battery pressure and average temperature provide an indication of the state of charge of the battery, wherein the integral system controller utilises input temperature sensors and diverter valves within the thermal energy storage system to control efficient charging of the individual batteries within the thermal energy system using pre-defined rules, the integral system controller also uses output temperature sensors to determine the energy delivered by each battery within the thermal energy system and the residual energy in each of said batteries during discharging, and the temperature sensors are also used for calculating the energy stored and the power input of each individual battery within the thermal energy system as well as of the overall battery system.
An adjustable seal system comprising: a suspension liner having a liner body and an outer surface, the outer surface including a plurality of concentric seal bands disposed about an outer cover of the liner body; and a seal component, wherein the seal component is arranged for removably securing to the liner body and includes: open upper and lower ends (5, 7) each defining an opening therethrough and an internal surface arranged to frictionally engage at least one of the seal bands and secure on the outer surface of the liner; an upper portion descending to at least one seal; a lower portion; and a distal capture system located at the lower portion of the seal component, the distal capture system arranged to form a connection between the seal component and a distal end of the liner after the liner is donned on a residual limb and the seal component is secured on the outer surface of the liner, characterized by the lower portion having a curvature curving inwardly toward the lower end from the at least one seal, the opening at the lower end having a diameter arranged and dimensioned to prevent passage of the suspension liner through the opening of the lower end and fixing a location of the at least one seal on the liner body. a suspension liner having a liner body and an outer surface, the outer surface including a plurality of concentric seal bands disposed about an outer cover of the liner body; and a seal component, wherein the seal component is arranged for removably securing to the liner body and includes: open upper and lower ends (5, 7) each defining an opening therethrough and an internal surface arranged to frictionally engage at least one of the seal bands and secure on the outer surface of the liner; an upper portion descending to at least one seal; a lower portion; and open upper and lower ends (5, 7) each defining an opening therethrough and an internal surface arranged to frictionally engage at least one of the seal bands and secure on the outer surface of the liner; an upper portion descending to at least one seal; a lower portion; and a distal capture system located at the lower portion of the seal component, the distal capture system arranged to form a connection between the seal component and a distal end of the liner after the liner is donned on a residual limb and the seal component is secured on the outer surface of the liner, characterized by the lower portion having a curvature curving inwardly toward the lower end from the at least one seal, the opening at the lower end having a diameter arranged and dimensioned to prevent passage of the suspension liner through the opening of the lower end and fixing a location of the at least one seal on the liner body.
A component supply device comprising: a component support section configured to support multiple components in a scattered state, in which the components are supplied on a support surface of the component support section where they might be picked up; a collection container arranged next to the component support section and configured to collect the components supported on the support surface via an opening in the collection container; a collection device configured to cause the components supported on the support surface to be collected inside the collection container via the opening in the collection container; characterized in that the component supply device further comprises a container orientation changing device configured to scatter the components collected inside the collection container on the support surface by changing the orientation of the collection container such that the opening of the collection container faces the support surface. a component support section configured to support multiple components in a scattered state, in which the components are supplied on a support surface of the component support section where they might be picked up; a collection container arranged next to the component support section and configured to collect the components supported on the support surface via an opening in the collection container; a collection device configured to cause the components supported on the support surface to be collected inside the collection container via the opening in the collection container; characterized in that the component supply device further comprises a container orientation changing device configured to scatter the components collected inside the collection container on the support surface by changing the orientation of the collection container such that the opening of the collection container faces the support surface.
An image forming apparatus comprising: a printing device configured to print an image on a plate-shaped printing medium; a rotator configured to rotate while nipping the plate-shaped printing medium and convey the plate-shaped printing medium to the printing device; and an upstream support stand configured to support the plate-shaped printing medium at a position upstream from the rotator in a conveyance direction of the plate-shaped printing medium, the upstream support stand including a mount, the mount being detachably attached to the rotator. a printing device configured to print an image on a plate-shaped printing medium; a rotator configured to rotate while nipping the plate-shaped printing medium and convey the plate-shaped printing medium to the printing device; and an upstream support stand configured to support the plate-shaped printing medium at a position upstream from the rotator in a conveyance direction of the plate-shaped printing medium, the upstream support stand including a mount, the mount being detachably attached to the rotator.
Composite body, comprising a pad with a non-adhesive cover filled with a hydrogel-forming absorbent material, and a self-adhesive fastening element for use in covering a catheter port in a body which has a permanent body orifice in the form of a navel which forms the catheter port and which is formed as an output of a neobladder, characterised in that the hydrogel-forming absorbent material is provided for permanent absorption of urine leaking from the body orifice, wherein the pad is provided to be replaceable and the self-adhesive fastening element can be used multiple times. the hydrogel-forming absorbent material is provided for permanent absorption of urine leaking from the body orifice, wherein the pad is provided to be replaceable and the self-adhesive fastening element can be used multiple times.
A crude extract of Artemia salina extracted in water or in 0,9% saline for use in increasing tear secretion and thereby treating or preventing dry eye.
A vacuum insulation panel comprising: (a) a porous insulating core having an upper surface and a lower surface and sides; wherein the insulating core is constructed from a powder insulating microporous material selected from the group consisting of fumed silica, precipitated silica, perlite, diatomaceous earth or combinations thereof; (b) an envelope about the core arranged to envelop the core, and to maintain an applied vacuum within the envelope; (c) at least one metal foil having a thickness of from 4 microns to 50 microns between the envelope and the core and extending across substantially the entire surface of the core on the upper surface or lower surface thereof, wherein the foil does not extend about the sides of the insulating core, the foil does not form a thermal bridge between the upper surface and lower surface of the core; and the envelope comprises an envelope inner layer and the metal foil has at least one outer thermoplastic layer adhered thereto wherein the envelope inner layer and the outer layer on the metal foil are attached to each other by heating the panel after the vacuum has been applied; said vacuum insulating panel having a thermal conductivity of from 3.0 mW/m·K to 4.0 mW/m·K. (a) a porous insulating core having an upper surface and a lower surface and sides; wherein the insulating core is constructed from a powder insulating microporous material selected from the group consisting of fumed silica, precipitated silica, perlite, diatomaceous earth or combinations thereof; (b) an envelope about the core arranged to envelop the core, and to maintain an applied vacuum within the envelope; (c) at least one metal foil having a thickness of from 4 microns to 50 microns between the envelope and the core and extending across substantially the entire surface of the core on the upper surface or lower surface thereof, wherein the foil does not extend about the sides of the insulating core, the foil does not form a thermal bridge between the upper surface and lower surface of the core; and the envelope comprises an envelope inner layer and the metal foil has at least one outer thermoplastic layer adhered thereto wherein the envelope inner layer and the outer layer on the metal foil are attached to each other by heating the panel after the vacuum has been applied; said vacuum insulating panel having a thermal conductivity of from 3.0 mW/m·K to 4.0 mW/m·K.
A prosthetic conduit system comprising: an expandable main conduit having a first open end, a second open end, a main conduit wall extending between the first open end and the second open end, an outer conduit surface, and an inner conduit surface having at least one protuberance located on the inner conduit surface in between the first open end and the second open end, said at least one protuberance comprising a cuff (34, 78) having semi-rigid or densified segments along its length to prevent or inhibit the cuff (34, 78) from collapsing; and an expandable secondary conduit having a first open end, a second open end, a secondary wall extending therebetween, and an attachment portion extending at an angle of less than 90 degrees from the secondary wall when in a deployed state; at least a portion of the secondary conduit being disposed inside the main conduit, and the attachment portion being configured to engage the at least one protuberance (34, 78) of the inner conduit surface. an expandable main conduit having a first open end, a second open end, a main conduit wall extending between the first open end and the second open end, an outer conduit surface, and an inner conduit surface having at least one protuberance located on the inner conduit surface in between the first open end and the second open end, said at least one protuberance comprising a cuff (34, 78) having semi-rigid or densified segments along its length to prevent or inhibit the cuff (34, 78) from collapsing; and an expandable secondary conduit having a first open end, a second open end, a secondary wall extending therebetween, and an attachment portion extending at an angle of less than 90 degrees from the secondary wall when in a deployed state; at least a portion of the secondary conduit being disposed inside the main conduit, and the attachment portion being configured to engage the at least one protuberance (34, 78) of the inner conduit surface.