mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: dividing a plurality of co-located DSL lines into a first group of DSL lines and a second group of DSL lines based on characteristics common to each of the DSL lines within the first and second groups; determining attainable upstream data rates for the first and second groups of DSL lines according to the characteristics of each group; selecting upstream power control parameters to apply to each of the first and second groups of DSL lines based on the attainable upstream data rates determined; and instructing the DSL lines of the first and second groups to adopt the selected upstream power control parameters. dividing a plurality of co-located DSL lines into a first group of DSL lines and a second group of DSL lines based on characteristics common to each of the DSL lines within the first and second groups; determining attainable upstream data rates for the first and second groups of DSL lines according to the characteristics of each group; selecting upstream power control parameters to apply to each of the first and second groups of DSL lines based on the attainable upstream data rates determined; and instructing the DSL lines of the first and second groups to adopt the selected upstream power control parameters.
Apparatus for transporting lids for containers comprising a unit for supplying lids, said apparatus being configured to transport said lids from the supply unit toward a subsequent operating station, said apparatus comprising a pick-up zone configured to receive lids from the supply unit and a multiple pick-up device provided with a plurality of gripping heads to simultaneously pick up an organized group of lids and configured to be movable above the supply unit between a position in the pick-up zone and a position at said subsequent operating station, said apparatus comprising; - a multiple positioning device provided with a plurality of housing seatings, each of said housing seatings being configured to be vertically aligned with a corresponding one of the gripping heads in the position in the pick-up zone, - a movement device configured to move said organized group of lids in a movement direction, from said pick-up zone toward the multiple positioning device and to insert them in said housing seatings, said supply unit being configured to feed said lids in a direction of advance transverse to said direction of movement of said lids defined by said movement device; characterized in that each of said housing seatings is configured to receive inside it and house individually a corresponding one of said lids of said organized group of lids, each of said housing seatings being open at the upper part and being provided with a lateral aperture for the insertion of a lid, configured so that an insertion path of a corresponding lid from the pick-up zone to a corresponding housing seating is tangential, parallel to a common lying plane or parallel between the pick-up zone and multiple positioning device, wherein said multiple pick-up device comprises a positioning slider mounted cantilevered and able to slide transversely with respect to said direction of advance defined by the supply unit and configured to move the gripping heads in a direction transverse to said direction of advance. - a multiple positioning device provided with a plurality of housing seatings, each of said housing seatings being configured to be vertically aligned with a corresponding one of the gripping heads in the position in the pick-up zone, - a movement device configured to move said organized group of lids in a movement direction, from said pick-up zone toward the multiple positioning device and to insert them in said housing seatings,
A process for hydrodesulfurizing olefinic naphtha feedstreams and retaining a substantial amount of the olefins, which feedstream boils in the range of 10°C (50°F) to 232°C (450°F) and contains substantial amounts of organically bound sulfur and olefins, which process comprises: a) hydrodesulfurizing the feedstream in a first sulfur removal stage in the presence of hydrogen and a hydrodesulfurization catalyst, at hydrodesulfurization reaction conditions including temperatures from 232°C (450°F) to 427°C (800°F), pressures of 414-5516 kPag (60 to 800 psig), and hydrogen treat gas rates of 178-1069 l/l (1000 to 6000 standard cubic feet per barrel), to convert at least 50 wt% of the organically bound sulfur to hydrogen sulfide and to produce a first product stream containing from 100 to 1,000 wppm organically bound sulfur; b) fractionating said product stream into a light fraction and a heavy fraction, wherein the fractionation cut point is at a temperature such that the light fraction contains less than 100 wppm of organically bound sulfur and some hydrogen sulfide and the heavy fraction contains the remainder of the organically bound sulfur; c) stripping the light fraction of at least a portion of its hydrogen sulfide; d) conducting the stripped light fraction away from the process; e) conducting the heavy fraction to a second sulfur removal stage wherein at least a portion of the remaining organically bound sulfur is removed, to produce a second product stream. a) hydrodesulfurizing the feedstream in a first sulfur removal stage in the presence of hydrogen and a hydrodesulfurization catalyst, at hydrodesulfurization reaction conditions including temperatures from 232°C (450°F) to 427°C (800°F), pressures of 414-5516 kPag (60 to 800 psig), and hydrogen treat gas rates of 178-1069 l/l (1000 to 6000 standard cubic feet per barrel), to convert at least 50 wt% of the organically bound sulfur to hydrogen sulfide and to produce a first product stream containing from 100 to 1,000 wppm organically bound sulfur; b) fractionating said product stream into a light fraction and a heavy fraction, wherein the fractionation cut point is at a temperature such that the light fraction contains less than 100 wppm of organically bound sulfur and some hydrogen sulfide and the heavy fraction contains the remainder of the organically bound sulfur; c) stripping the light fraction of at least a portion of its hydrogen sulfide; d) conducting the stripped light fraction away from the process; e) conducting the heavy fraction to a second sulfur removal stage wherein at least a portion of the remaining organically bound sulfur is removed, to produce a second product stream.
A printing apparatus comprising: an ink discharge head for discharging ink; an ink storage unit for storing the ink; a liquid sending unit for sending the ink to the ink storage unit from an ink container containing the ink; an ink circulation path having a forward circulation path through which the ink, which is to be supplied to the ink discharge head from the ink storage unit, can flow, and a backward circulation path through which the ink, which is to return to the ink storage unit from the ink discharge head, can flow; and a receptacle that has an opening opened upward and is provided inside the ink storage unit, wherein an end portion of the backward circulation path on the ink storage unit side is positioned below the opening inside the receptacle and an end portion of the forward circulation path on the ink storage unit side is positioned below the receptacle inside the ink storage unit. an ink discharge head for discharging ink; an ink storage unit for storing the ink; a liquid sending unit for sending the ink to the ink storage unit from an ink container containing the ink; an ink circulation path having a forward circulation path through which the ink, which is to be supplied to the ink discharge head from the ink storage unit, can flow, and a backward circulation path through which the ink, which is to return to the ink storage unit from the ink discharge head, can flow; and a receptacle that has an opening opened upward and is provided inside the ink storage unit, wherein an end portion of the backward circulation path on the ink storage unit side is positioned below the opening inside the receptacle and an end portion of the forward circulation path on the ink storage unit side is positioned below the receptacle inside the ink storage unit.
A reversible water electrolysis system comprising: a reversible water electrolysis fuel cell 30 having a hydrogen pole, an air pole and an electrolyte disposed between the hydrogen pole and the air pole, wherein the reversible water electrolysis fuel cell is configured to be operated at one of a water electrolysis mode and a fuel cell mode; a first heat exchanger 41 configured to exchange a heat between a first exhaust gas exhausted from the hydrogen pole and a hydrogen or a mixed gas including the hydrogen and a steam, wherein the hydrogen or the mixed gas is supplied to the hydrogen pole; a steam supply passage L21 configured to supply the steam to the hydrogen pole; a water discharger configured to removing a water from the first exhaust gas; and a pump equipped to a water discharge passage L43 of the water discharge and configured to pump the water to outside, wherein the pump is configured to maintain a pressure difference between an inlet of the hydrogen pole and an inlet of the air pole within a predetermined range. a reversible water electrolysis fuel cell 30 having a hydrogen pole, an air pole and an electrolyte disposed between the hydrogen pole and the air pole, wherein the reversible water electrolysis fuel cell is configured to be operated at one of a water electrolysis mode and a fuel cell mode; a first heat exchanger 41 configured to exchange a heat between a first exhaust gas exhausted from the hydrogen pole and a hydrogen or a mixed gas including the hydrogen and a steam, wherein the hydrogen or the mixed gas is supplied to the hydrogen pole; a steam supply passage L21 configured to supply the steam to the hydrogen pole; a water discharger configured to removing a water from the first exhaust gas; and a pump equipped to a water discharge passage L43 of the water discharge and configured to pump the water to outside, wherein the pump is configured to maintain a pressure difference between an inlet of the hydrogen pole and an inlet of the air pole within a predetermined range.
A method of controlling a front compartment lid of a vehicle, said vehicle comprising a control unit, a front compartment with a lid, an electrically controlled front compartment lid locking and/or opening mechanism and at least one vehicle door handle, characterized in that the method comprises following steps: - monitoring of a status of said at least one vehicle door handle by receiving in the control unit of data from a sensor for angular position of said door handle between open position and closed position; - monitoring at least of locking status of said locking and/or opening mechanism of the front compartment lid; - comparing said data from the vehicle door handle sensor with a preset threshold value of the angular position of said door handle; - in case of matching said vehicle door handle sensor data with said preset threshold value, generating a control signal to the locking and/or opening mechanism of the front compartment lid, said control signal being generated also depending at least on the current locking status of the locking and/or opening mechanism of the front compartment lid. - monitoring of a status of said at least one vehicle door handle by receiving in the control unit of data from a sensor for angular position of said door handle between open position and closed position; - monitoring at least of locking status of said locking and/or opening mechanism of the front compartment lid; - comparing said data from the vehicle door handle sensor with a preset threshold value of the angular position of said door handle; - in case of matching said vehicle door handle sensor data with said preset threshold value, generating a control signal to the locking and/or opening mechanism of the front compartment lid, said control signal being generated also depending at least on the current locking status of the locking and/or opening mechanism of the front compartment lid.
A frozen confection stick product comprising from two to eight frozen confection streams rippled in the longitudinal direction, wherein the frozen confection stream ripples form a longitudinal repeat unit comprising a ripple of each frozen confection stream, the frozen confection product comprises from three to eight repeat units, and the longitudinal axes of the frozen confection stream ripples are not coaxial.
An evaporative cooling pad for an air treatment unit, the evaporative cooling pad comprising: a first set of corrugated sheets and a second set of corrugated sheets having corrugations defined in a direction transversely of a horizontal plane of the pad, the sheets of the first set being disposed alternatively with the sheets of the second set, with the corrugations of the sheets of the first set crossing the corrugations of the sheets of the second set; said crossed corrugations defining passageways penetrating from a first edge to a second edge of the pad, the corrugations of said corrugated sheets bearing against one another so that the sheets touch where at least one of the wave peaks and wave troughs (t1, t2) of their respective corrugations cross; at least one wave peak between two wave peaks of equal amplitude of at least one of the first and second set (18, 22) of corrugated sheets has a smaller amplitude than the wave peaks of equal amplitude, wherein the wave length of the wave troughs (t1, t2) on each side of the at least one wave peak with smaller amplitude is smaller than the wave length of the two wave peaks of equal amplitude on each side of the wave peak with smaller amplitude. a first set of corrugated sheets and a second set of corrugated sheets having corrugations defined in a direction transversely of a horizontal plane of the pad, the sheets of the first set being disposed alternatively with the sheets of the second set, with the corrugations of the sheets of the first set crossing the corrugations of the sheets of the second set; said crossed corrugations defining passageways penetrating from a first edge to a second edge of the pad, the corrugations of said corrugated sheets bearing against one another so that the sheets touch where at least one of the wave peaks and wave troughs (t1, t2) of their respective corrugations cross; at least one wave peak between two wave peaks of equal amplitude of at least one of the first and second set (18, 22) of corrugated sheets has a smaller amplitude than the wave peaks of equal amplitude, wherein the wave length of the wave troughs (t1, t2) on each side of the at least one wave peak with smaller amplitude is smaller than the wave length of the two wave peaks of equal amplitude on each side of the wave peak with smaller amplitude.
A method of providing open loop power control and modulation and coding scheme, MCS, selection for an aerial wireless transmit/receive unit, WTRU, in communication with a terrestrial-based wireless communication system that also communicates with terrestrial WTRUs the method comprising: estimating a path loss for a serving cell along a first communication path between the serving cell and the aerial WTRU; estimating a path loss for a neighboring cell along a second communication path between the neighboring cell and the aerial WTRU, wherein the neighboring cell is different from the serving cell; said method being further characterized by: determining a path loss compensation factor, wherein the path loss compensation factor is dependent on an altitude of the aerial WTRU, the path loss estimation for the serving cell, and the path loss estimation for the neighboring cell; dynamically selecting an MCS based on pre-configured rules for the determined path loss compensation factor; and controlling transmission power for the aerial WTRU by applying the path loss compensation factor and transmitting data based on the selected MCS. estimating a path loss for a serving cell along a first communication path between the serving cell and the aerial WTRU; estimating a path loss for a neighboring cell along a second communication path between the neighboring cell and the aerial WTRU, wherein the neighboring cell is different from the serving cell; determining a path loss compensation factor, wherein the path loss compensation factor is dependent on an altitude of the aerial WTRU, the path loss estimation for the serving cell, and the path loss estimation for the neighboring cell; dynamically selecting an MCS based on pre-configured rules for the determined path loss compensation factor; and controlling transmission power for the aerial WTRU by applying the path loss compensation factor and transmitting data based on the selected MCS.
Method for realizing a rod of the tobacco industry, by means of a machine of the tobacco industry, wherein the rod comprises a rope of material of the tobacco industry and a tubular wrapper that wraps the rope, the method comprising the steps of: - feeding a band of a wrapping material intended to form the tubular wrapper of the rod; - forming a rope of a material of the tobacco industry; - wrapping the band of a wrapping material around the rope of material of the tobacco industry to form the rod of the tobacco industry; and - supplying a strip of fluid on the band of a wrapping material and/or on the rope of material of the tobacco industry; the method is characterized in that it comprises the step of detecting the presence and/or size of bubbles inside the fluid before supplying said strip on the band of a wrapping material and/or on the rope of a material of the tobacco industry. - feeding a band of a wrapping material intended to form the tubular wrapper of the rod; - forming a rope of a material of the tobacco industry; - wrapping the band of a wrapping material around the rope of material of the tobacco industry to form the rod of the tobacco industry; and - supplying a strip of fluid on the band of a wrapping material and/or on the rope of material of the tobacco industry;
A plasma apparatus comprising: a remote plasma source; a substrate processing chamber; and a connector which connects the remote plasma source to the substrate processing chamber; wherein: the remote plasma source comprises: a continuous peripheral wall structure that surrounds an inner channel, the continuous peripheral wall structure comprising an electrode structure that defines at least a part of an internal channel extending internally within the continuous peripheral wall structure in which an inductively coupled plasma can be sustained, wherein the internal channel is spaced apart from the inner channel; an electrical signal supply device configured to supply an electrical signal that is adapted to drive the electrode structure as a primary winding of an inductively coupled plasma source to sustain the inductively coupled plasma within the internal channel; and a plasma outlet which is in communication with the internal channel; and the connector is in connection with the plasma outlet of the remote plasma source and the substrate processing chamber so that at least some components of the inductively coupled plasma sustained in the internal channel can be introduced to the substrate processing chamber; wherein the electrode structure comprises at least four spaced apart wall segments (102a-f). a remote plasma source; a substrate processing chamber; and a connector which connects the remote plasma source to the substrate processing chamber; the remote plasma source comprises: a continuous peripheral wall structure that surrounds an inner channel, the continuous peripheral wall structure comprising an electrode structure that defines at least a part of an internal channel extending internally within the continuous peripheral wall structure in which an inductively coupled plasma can be sustained, wherein the internal channel is spaced apart from the inner channel; an electrical signal supply device configured to supply an electrical signal that is adapted to drive the electrode structure as a primary winding of an inductively coupled plasma source to sustain the inductively coupled plasma within the internal channel; and a plasma outlet which is in communication with the internal channel; and the connector is in connection with the plasma outlet of the remote plasma source and the substrate processing chamber so that at least some components of the inductively coupled plasma sustained in the internal channel can be introduced to the substrate processing chamber; wherein the electrode structure comprises at least four spaced apart wall segments (102a-f).
Beads of a phenolic compound having a solubility at 90°C of at least 500 g/l, the solubility thereof being at least double between a "hot" temperature chosen between 80°C and 98°C and a "cold" temperature chosen between -30°C and 30°C; said beads being in the form of highly spherical solid particles having a size, expressed by the median diameter (d 50), varying from 300 μm to 2000 μm and an internal porosity, determined on a mercury porosimeter, varying between 0.5 and 0.75 cm 3 /g and having a resistance to attrition varying between 90 and 100%.
A mesoporous composite titanium oxide composed of a mesoporous titanium oxide and an inorganic matter composited on the outside surface and the wall of pores of the mesoporous titanium oxide; said inorganic matter contains at least one element selected from sulphur, phosphorus and selenium in an amount of 0.01 %-25 %, based on the amount of the element mass, of the mass of said mesoporous composite titanium oxide material; wherein at least one most probable pore diameter of pore distribution of the mesoporous composite titanium oxide material is 3-15 nm, the specific surface area is 50-250 m 2 /g, and the pore volume is 0.05-0.4 cm 3 /g.
Display device for a motor vehicle, wherein the display device comprises a display area for displaying an image and an optical device, which is configured to project an image displayed on the display area, wherein the optical device comprises at least one reflector (14a; 14b) and an actuator which is configured to move the reflector (14a; 14b), characterised in that the actuator has a shape memory material, which is designed to deform with a temperature-dependent phase transition and thereby move the reflector (14a; 14b), wherein the optical device is configured to project an image displayed on the display area in at least one direction of projection when the reflector (14a; 14b) is in a first position, wherein the actuator is configured to move the reflector (14a; 14b) out of the first position so that light arriving on the optical device opposite the direction of projection does not reach the display area, the reflector (14a; 14b) being applied as a reflective coating on an area of the actuator.