Metroconsult Srl

Described herein is a device for spectroscopic analysis in the UV-Vis range, comprising: - a UV-Vis pulsed light source (L) with pulses of less than or equal to 100 ps; - an input device (F-in) adapted to receive the light from said source; - a sample holder adapted to receive the light from said input device (F-in), said sample holder comprising: - a first input duct (Ci) adapted to receive the light from said input device; - a cavity (Psi, Pii) adapted to contain a solvent and a solution comprising a solvent and an analyte, said cavity being so formed within the sample holder as to receive the light from said input duct (Ci) and cause the light to be reflected multiple times inside the cavity, as well as to extend the optical path of the light in the sample holder; - an output duct (Co) for outputting the light from said cavity and from said sample holder, said output duct being offset relative to said input duct (Ci); - a second input duct (F) adapted for supplying solutions into said cavity; - an output device (F-out) connected to said output duct (Co); - an analysis device (S, A, D, O) adapted to receive the pulsed light from said output device (F-out), said analysis device being adapted to detect events of said spectroscopic analysis from a single photon of said pulsed light.

A method, which is performed by a terminal, for receiving a Physical Downlink Control Channel (PDCCH) in a wireless communication system comprises the steps of: receiving, from a base station, configuration information about a first control resource set (CORESET); receiving, from the base station, configuration information about a second CORESET; receiving, from the base station, a first PDCCH transmitted on the first CORESET; and receiving, from the base station, a second PDCCH transmitted on the second CORESET.

Machine for washing and/or decontaminating objects, for applications in the chemical, pharmaceutical and/or clinical/preclinical research fields, comprising: a box-shaped body (10), defining a treatment chamber (20), said treatment chamber (20) having at least one entrance (30); a door (40), associated with said entrance (30) and controllable between a closed condition, in which it closes said entrance (30), and an open condition, in which it does not close said entrance (30); an inflatable gasket (50), extending along a perimeter of said door (40), said inflatable gasket (50) being controllable between an inflated configuration, in which it generates a sealed closure when said door (40) is in the closed condition, and a deflated configuration; at least one latch (60), controllable between an operating condition, in which it locks the door (40) in the closed condition, and a rest condition, in which it exerts no locking action; a pneumatic circuit (100), acting upon said inflatable gasket (50) to bring it into the inflated configuration. Said at least one latch (60) houses part of said pneumatic circuit (100).

Disclosed are a UE of a wireless communication system and a wireless communication method using the same. More particularly, the method including receiving scheduling information including resource allocation information, wherein the resource allocation information comprises a RIV determined based on the number of RBs of a first BWP, and transmitting or receiving data on a RB set corresponding to the RIV in a second BWP, wherein the number of RBs of the second BWP is greater than the number of RBs of the first BWP, the starting RB index S and the number of RBs of the RB set corresponding to the RIV in the second BWP are given in powers of 2 and a device for the same are disclosed.

A plasma source (10) for high-repetition-rate accelerators is described, said plasma source (10) comprising:- a plasma-confining structure (20) made of a first ceramic material and configured to develop along a longitudinal direction according to a tubular geometry, comprising a plasma formation channel (21), a service channel (22) substantially parallel to said plasma formation channel (21), a plurality of injectors (23) adapted to provide a fluidic connection between said plasma formation channel (21) and said service channel (22);- a support structure (30) made of a second ceramic material and configured to house said plasma-confining structure (20).

The present invention relates to a method, device, and system for downlink data reception and HARQ-ACK transmission in a wireless communication system. According to the present invention, in the method, device, and system for downlink data reception and HARQ-ACK transmission, a first physical downlink control channel (PDCCH) for scheduling of a first physical downlink shared channel (PDSCH) is received, and a second PDCCH for scheduling of a second PDSCH is received. Thereafter, uplink control information (UCI) including a hybrid automatic repeat request (HARQ)-acknowledge (ACK) codebook for the first PDSCH and the second PDSCH is transmitted to a base station.

Disclosed are a user equipment of a wireless communication system and a wireless communication method using the same. More specifically, disclosed are a user equipment including a processor configured to receive DCI through a PDCCH indicating PDSCH scheduling information of each cell in one or more cell(s), identify a transmission scheme in each cell based on a DCI format of the DCI, receive a PDSCH of each cell in the one or more cell(s) based on the scheduling information of the PDCCH, generate a hybrid automatic repeat request acknowledgment (HARQ-ACK) bit sequence for the one or more cell(s) based on the identified transmission scheme of each cell in response to receiving the PDSCH of each cell, and transmit the generated HARQ-ACK bit sequence and a wireless communication method using the same.

A conductor (200) for overhead power lines, comprising: at least one electrically conductive skirt (210, 220); an aluminum tube (230), radially internal to said at least one conductive skirt (210, 220); a load-bearing core (240) of carbon fibre, radially internal to said aluminum tube (230); a sensor element (270), comprising: a metal tube (280), radially internal to said load-bearing core (240), and one or more optical fibres (250), radially internal to said metal tube (280).

Disclosed is a method for a user equipment to transmit a physical uplink shared channel (PUSCH) to a base station in a wireless communication system. The user equipment may receive, from the base station, configuration information for PUSCH transmission and a physical downlink control channel (PDCCH) for scheduling repeated transmission of the PUSCH. Thereafter, the user equipment may determine one or more invalid symbols for the repeated transmission of the PUSCH, and may repeatedly transmit the PUSCH on symbols other than the determined symbols.

A method, which is performed by a terminal, for receiving a Physical Downlink Control Channel (PDCCH) in a wireless communication system comprises the steps of: receiving, from a base station, configuration information about a first control resource set (CORESET); receiving, from the base station, configuration information about a second CORESET; receiving, from the base station, a first PDCCH transmitted on the first CORESET; and receiving, from the base station, a second PDCCH transmitted on the second CORESET.