mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a network node, for interference coordination for side-link communication between a first and a second User Equipment, UE, the method comprising: • sending, to the first and second UE, information allowing the first and the second UE to perform a side-link beam sweep for establishing a side-link beam pair in a set of resources, • sending, to other wireless nodes in the network, wherein the other wireless nodes are bystanders to the side-link communication, information indicating that a potentially interfering transmission is to occur in the set of resources, • receiving, from the first and/or the second UE, beam pair information indicative of one or more beam pairs intended for side-link communication between the first and the second UE, • monitoring for interference information indicating a level of interference experienced by one or more of the other wireless nodes due to transmission over at least one beam of the one or more beam pairs intended for side-link communication, and • scheduling resources for the side-link communication based on the monitored interference information. • sending, to the first and second UE, information allowing the first and the second UE to perform a side-link beam sweep for establishing a side-link beam pair in a set of resources, • sending, to other wireless nodes in the network, wherein the other wireless nodes are bystanders to the side-link communication, information indicating that a potentially interfering transmission is to occur in the set of resources, • receiving, from the first and/or the second UE, beam pair information indicative of one or more beam pairs intended for side-link communication between the first and the second UE, • monitoring for interference information indicating a level of interference experienced by one or more of the other wireless nodes due to transmission over at least one beam of the one or more beam pairs intended for side-link communication, and • scheduling resources for the side-link communication based on the monitored interference information.
Manufacturing method of a microphone, wherein the microphone comprises: - a piezoelectric film of piezoelectric material, - a lower electrode disposed on a lower side of the piezoelectric film, - a patterned upper electrode comprising pads disposed on an upper side of the piezoelectric film, - pillars disposed on the pads of the patterned electrode, - a rigid dish disposed on said pillars; said method comprising the following steps: - making of the patterned upper electrode by means of a first deposition of conductive material on an upper side of the piezoelectric film in such a way to form the pads of the patterned electrode, and characterised by - making of the pillars by means of successive depositions of rigid material, in aligned position on the pads of the patterned electrode, wherein said first deposition and said successive depositions are made by means of screen-printing, dispenser-printing or spray-coating of material in liquid or semifluid state. - a piezoelectric film of piezoelectric material, - a lower electrode disposed on a lower side of the piezoelectric film, - a patterned upper electrode comprising pads disposed on an upper side of the piezoelectric film, - pillars disposed on the pads of the patterned electrode, - a rigid dish disposed on said pillars; - making of the patterned upper electrode by means of a first deposition of conductive material on an upper side of the piezoelectric film in such a way to form the pads of the patterned electrode, - making of the pillars by means of successive depositions of rigid material, in aligned position on the pads of the patterned electrode,
A servo pump control system configured to control a physical system including an electric motor, a pump and a load, wherein the control is based on a physical model, said servo pump control system comprising: a pressure controller configured to receive a first control signal, and directly or indirectly provide a second control signal to the electric motor; and the pressure controller further configured to automatically commission at least one parameter without any manual adjustment, wherein the automatically commissioning at least one parameter comprises automatically commissioning at least one parameter based on a received elastic modulus of the physical model. a pressure controller configured to receive a first control signal, and directly or indirectly provide a second control signal to the electric motor; and the pressure controller further configured to automatically commission at least one parameter without any manual adjustment, wherein the automatically commissioning at least one parameter comprises automatically commissioning at least one parameter based on a received elastic modulus of the physical model.
A method of operation in a storage device, comprising: during operation of the storage device; for each of a plurality of distinct memory portions (140-1,...,140-n) (160-1,...,160-kg) of the storage device, establishing a non-zero value of a command delay parameter, wherein the non-zero value of the command delay parameter is distinct from a value of the command delay parameter established for one or more of the other memory portions in the plurality of distinct memory portions; after establishing the non-zero value of the command delay parameter in each of the plurality of distinct memory portions of the storage device, executing memory operations in two or more of the plurality of distinct memory portions of the storage device during overlapping time periods, the executing including, in each memory portion of the plurality of distinct memory portions, delaying execution of a respective memory operation by an amount of time corresponding to the non-zero value of the command delay parameter established for that memory portion; and characterized in that after delaying execution of the respective memory operations by the amount of time in each memory portion of the plurality of distinct memory portions, adjusting the non-zero value of the command delay parameter corresponding to one of the plurality of distinct memory portions. during operation of the storage device; for each of a plurality of distinct memory portions (140-1,...,140-n) (160-1,...,160-kg) of the storage device, establishing a non-zero value of a command delay parameter, wherein the non-zero value of the command delay parameter is distinct from a value of the command delay parameter established for one or more of the other memory portions in the plurality of distinct memory portions; after establishing the non-zero value of the command delay parameter in each of the plurality of distinct memory portions of the storage device, executing memory operations in two or more of the plurality of distinct memory portions of the storage device during overlapping time periods, the executing including, in each memory portion of the plurality of distinct memory portions, delaying execution of a respective memory operation by an amount of time corresponding to the non-zero value of the command delay parameter established for that memory portion; and characterized in that after delaying execution of the respective memory operations by the amount of time in each memory portion of the plurality of distinct memory portions, adjusting the non-zero value of the command delay parameter corresponding to one of the plurality of distinct memory portions.
A process for the preparation of a catalyst comprising at least the following steps: i) using at least the ZSM-12 zeolite, ii) preparing a support by shaping said zeolite with an alumina, iii) depositing at least one metal from group VIII of the periodic classification of the elements onto said support or onto said zeolite, the order of carrying out said steps ii) and iii) being unimportant following said step i), iv) bringing the catalyst obtained in step ii) or step iii), depending on the order in which they are carried out, into contact with steam at a partial pressure in the range 0.04 to 0.06 MPa, at a temperature in the range 300°C to 400°C, for at least 0.5 hour, in a manner such that the mesopore volume of the catalyst is increased by at least 10% compared with the initial mesopore volume of the catalyst, which is generally in the range 0.55 to 0.75 mL/g. i) using at least the ZSM-12 zeolite, ii) preparing a support by shaping said zeolite with an alumina, iii) depositing at least one metal from group VIII of the periodic classification of the elements onto said support or onto said zeolite, the order of carrying out said steps ii) and iii) being unimportant following said step i), iv) bringing the catalyst obtained in step ii) or step iii), depending on the order in which they are carried out, into contact with steam at a partial pressure in the range 0.04 to 0.06 MPa, at a temperature in the range 300°C to 400°C, for at least 0.5 hour, in a manner such that the mesopore volume of the catalyst is increased by at least 10% compared with the initial mesopore volume of the catalyst, which is generally in the range 0.55 to 0.75 mL/g.
A blend composition comprising: one or more polycarbonates wherein at least one of the polycarbonates is a polyester-polycarbonate having at least one unit derived from sebacic acid and has a biocontent of at least 5 weight% based upon a total weight of the polyester-polycarbonate, determined according ASTM-D6866; a glass content of 10 weight% or greater based upon a total weight of the composition; and an epoxy resin; wherein the composition has a melt volume rate of greater than 10.5 cm 3 /10 minutes at 300°C/1.2kg according to ASTM-D1238-10, and wherein a part molded having a 0.8 mm thickness molded from the composition has a gloss value of 89 or higher at 60°, according to ASTM-D523. one or more polycarbonates wherein at least one of the polycarbonates is a polyester-polycarbonate having at least one unit derived from sebacic acid and has a biocontent of at least 5 weight% based upon a total weight of the polyester-polycarbonate, determined according ASTM-D6866; a glass content of 10 weight% or greater based upon a total weight of the composition; and an epoxy resin; wherein the composition has a melt volume rate of greater than 10.5 cm 3 /10 minutes at 300°C/1.2kg according to ASTM-D1238-10, and wherein a part molded having a 0.8 mm thickness molded from the composition has a gloss value of 89 or higher at 60°, according to ASTM-D523.
An aluminum titanate ceramic forming green body, comprising: a homogeneous mixture of inorganic batch materials including sources of alumina, titania, and silica; a pore former comprising starch and graphite which is less than 15%, by weight, of the inorganic batch materials; and an organic binder; wherein said green body includes a plurality of interconnected cell walls forming a plurality of cell channels traversing the body; characterized in that the starch constitutes no less than 1 % and no more than 8% by weight of the inorganic batch materials, and graphite constitutes no more than 8% by weight of the inorganic batch materials. a homogeneous mixture of inorganic batch materials including sources of alumina, titania, and silica; a pore former comprising starch and graphite which is less than 15%, by weight, of the inorganic batch materials; and an organic binder; wherein said green body includes a plurality of interconnected cell walls forming a plurality of cell channels traversing the body; characterized in that the starch constitutes no less than 1 % and no more than 8% by weight of the inorganic batch materials, and graphite constitutes no more than 8% by weight of the inorganic batch materials.
A system for detecting a target nucleic acid in a sample comprising: a solid support comprising a capture probe immobilized directly or indirectly to a discrete region of said solid support, said capture probe comprising a target binding region for hybridizing or binding to a first region of said target nucleic acid to form a thermodynamically stable duplex; a detectably labeled query probe able to repeatedly hybridize to and dissociate from a second region of said target nucleic acid, wherein said detectably labeled query probe binds to said target nucleic acid with a rate constant k on that is greater than 0.001 per second and/or said detectably labeled query probe dissociates from said target nucleic acid with a k off that is greater than 0.001 per second; and a processor configured to: count the number of times and/or rate of transient binding events between the detectably labeled query probe and the target nucleic acid; and indicate the presence of the target nucleic acid in the sample based on the number and/or rate of said transient binding events within a given time frame. a solid support comprising a capture probe immobilized directly or indirectly to a discrete region of said solid support, said capture probe comprising a target binding region for hybridizing or binding to a first region of said target nucleic acid to form a thermodynamically stable duplex; a detectably labeled query probe able to repeatedly hybridize to and dissociate from a second region of said target nucleic acid, wherein said detectably labeled query probe binds to said target nucleic acid with a rate constant k on that is greater than 0.001 per second and/or said detectably labeled query probe dissociates from said target nucleic acid with a k off that is greater than 0.001 per second; and a processor configured to: count the number of times and/or rate of transient binding events between the detectably labeled query probe and the target nucleic acid; and indicate the presence of the target nucleic acid in the sample based on the number and/or rate of said transient binding events within a given time frame. count the number of times and/or rate of transient binding events between the detectably labeled query probe and the target nucleic acid; and indicate the presence of the target nucleic acid in the sample based on the number and/or rate of said transient binding events within a given time frame.
A fluid ejecting device comprising: a die comprising: a perimeter defined by a first edge, a second edge opposing the first edge, a third edge, and a fourth edge opposing the third edge, wherein the third and fourth edges are disposed at an angle to the first and second edges to form angular corners; an active area including circuitry for controlling the fluid ejecting device to eject fluid; an inactive area positioned between the perimeter and the active area; and a termination ring encircling the active area, the termination ring including sides extending parallel to the first, second, third, and fourth edges and corners coupling adjacent sides, the corners having a corner radius greater than a first distance between one of the edges and one of the sides of the termination ring extending along the associated edge; and a nozzle to eject fluid, wherein the circuitry is positioned a second distance from the angular corners, the second distance being greater than the corner radius, and the termination ring is centered between the first and second edges and the third and fourth edges. a die comprising: a perimeter defined by a first edge, a second edge opposing the first edge, a third edge, and a fourth edge opposing the third edge, wherein the third and fourth edges are disposed at an angle to the first and second edges to form angular corners; an active area including circuitry for controlling the fluid ejecting device to eject fluid; an inactive area positioned between the perimeter and the active area; and a termination ring encircling the active area, the termination ring including sides extending parallel to the first, second, third, and fourth edges and corners coupling adjacent sides, the corners having a corner radius greater than a first distance between one of the edges and one of the sides of the termination ring extending along the associated edge; and a perimeter defined by a first edge, a second edge opposing the first edge, a third edge, and a fourth edge opposing the third edge, wherein the third and fourth edges are disposed at an angle to the first and second edges to form angular corners; an active area including circuitry for controlling the fluid ejecting device to eject fluid; an inactive area positioned between the perimeter and the active area; and a termination ring encircling the active area, the termination ring including sides extending parallel to the first, second, third, and fourth edges and corners coupling adjacent sides, the corners having a corner radius greater than a first distance between one of the edges and one of the sides of the termination ring extending along the associated edge; and a nozzle to eject fluid, wherein the circuitry is positioned a second distance from the angular corners, the second distance being greater than the corner radius, and the termination ring is centered between the first and second edges and the third and fourth edges.
A seat, comprising a backrest and a seat cushion, with a plurality of adjusting elements (A to F) in the backrest, which are arranged within the contact face of the backrest facing a user and can carry out a lifting movement directed approximately perpendicular to the contact face, characterised in that an activation device is provided, by means of which the adjusting elements (A to F) are activated in a mutually time-coordinated order in such a way that a rotational movement, which is comparable to the rotational movement of the back during walking, is applied to the back of the user, wherein the adjusting elements (A to F) are arranged in the following regions of the backrest: - in the upper region (shoulder region), - in the central region (thorax region) and/or - in the lower region (lumbar region), with at least one adjusting element (A to F) in each case in the right-hand and in the left-hand half of the backrest, wherein either the adjusting elements (A and D as well as B and C or A and F as well as B and E) are alternately activated, so that, obliquely opposite in each case, in other words vertically offset in the right-hand and the left-hand half of the backrest, a feed movement to the back of the seat user takes place or an adjusting element in the shoulder region (A or B) and an adjusting element in the lumbar region (E or F) in the right-hand or the left-hand half of the backrest are in each case activated together with an adjusting element in the thorax region (D or C) in the left-hand or right-hand half of the backrest, wherein the adjusting elements (A, D and E or B, C and F) are actuated alternately. - in the upper region (shoulder region), - in the central region (thorax region) and/or - in the lower region (lumbar region),
A mobile wireless communications device comprising: a portable housing; a printed circuit board carried by said portable housing; wireless transceiver circuitry carried by said PCB; an antenna coupled to said wireless transceiver circuitry and comprising first and second feed legs, extending upwardly from said PCB, a loop conductor spaced above said PCB and having a gap therein defining first and second ends, a first conductor arm spaced above said PCB and extending between said first feed leg and the first end of said loop conductor, and a second conductor arm spaced above said PCB and having a proximal portion extending between said second feed leg and the second end of said loop conductor, and having a distal portion extending outwardly from the second feed leg, said first conductor arm and the proximal portion of said second conductor arm defining a slotted opening into an interior of said loop conductor, characterised in that the slotted opening is L-shaped and arranged so that the back of the L lies parallel to the first conductor arm and the first conductor arm projects away from the foot of the L. a portable housing; a printed circuit board carried by said portable housing; wireless transceiver circuitry carried by said PCB; an antenna coupled to said wireless transceiver circuitry and comprising first and second feed legs, extending upwardly from said PCB, a loop conductor spaced above said PCB and having a gap therein defining first and second ends, a first conductor arm spaced above said PCB and extending between said first feed leg and the first end of said loop conductor, and a second conductor arm spaced above said PCB and having a proximal portion extending between said second feed leg and the second end of said loop conductor, and having a distal portion extending outwardly first and second feed legs, extending upwardly from said PCB, a loop conductor spaced above said PCB and having a gap therein defining first and second ends, a first conductor arm spaced above said PCB and extending between said first feed leg and the first end of said loop conductor, and a second conductor arm spaced above said PCB and having a proximal portion extending between said second feed leg and the second end of said loop conductor, and having a distal portion extending outwardly from the second feed leg,
A light emitting device including: a substrate which has protrusions on the C-face, and of which unit cells are constructed in a hexagonal structure, wherein the substrate has a flat C-face surface between the protrusions; a semiconductor layer which is formed on the substrate in contact with the protrusions and the flat C-face surface, in which empty spaces are formed in plural portions between the protrusions formed on the C-face of the substrate and the flat C-face surface of the substrate, and of which unit cells are constructed in a hexagonal structure, wherein the empty spaces are partly delimited by the sides of the protrusions and by the flat C-face surface; and a light emitting structure layer comprising a first conductive semiconductor layer, a second conductive semiconductor layer and an active layer formed between the first conductive semiconductor layer and second conductive semiconductor layer which are formed on the semiconductor layer, wherein the A-face of the substrate and the A-face of the semiconductor layer form an angle of greater than zero degree. a substrate which has protrusions on the C-face, and of which unit cells are constructed in a hexagonal structure, wherein the substrate has a flat C-face surface between the protrusions; a semiconductor layer which is formed on the substrate in contact with the protrusions and the flat C-face surface, in which empty spaces are formed in plural portions between the protrusions formed on the C-face of the substrate and the flat C-face surface of the substrate, and of which unit cells are constructed in a hexagonal structure, wherein the empty spaces are partly delimited by the sides of the protrusions and by the flat C-face surface; and a light emitting structure layer comprising a first conductive semiconductor layer, a second conductive semiconductor layer and an active layer formed between the first conductive semiconductor layer and second conductive semiconductor layer which are formed on the semiconductor layer, wherein the A-face of the substrate and the A-face of the semiconductor layer form an angle of greater than zero degree.