TRBL Intellectual Property

The present disclosure provides a rotating packed bed (RPB) system (100) with modified mechanical supports, casing (107) and a method (200) thereof. The rotating packed bed (RPB) system (100) includes a shaft (101) connected to a rotor (109) with a top plate (102) and a base plate (103) positioned parallel to each other and separated to accommodate a packing material (118). A casing (107) houses the rotor assembly (109) and is designed to split into a first portion (107-1) and a second portion (107-2), allowing horizontal pivoting. The first portion (107-1) is detachable for accessing the rotor assembly (109). The system (100) includes one or more stepped tie rods (106) positioned at the inner and outer diameters of the top plate (102) and the base plate (103) to connect them securely.

The present disclosure relates to a Rotating packed bed (RPB) (101) wherein the rotor assembly (106) is supported on a roller assembly (100) for improved mechanical integrity and low vibrations and a method (200) thereof. The roller assembly (100) includes at least three rollers (102) distributes a load that is disposed in a rotating shaft (103) of the rotor assembly (106). The at least three rollers (102) are adapted to configure in a pre-determined configuration i.e. in triangular pitch. The outer layer (104) is disposed an exterior surface (104-1) of each of the at least three rollers (102) respectively. Further, the rotating shaft (103) is positioned at the center of the first (102-1), the second (102-2), and the third (102-3) rollers, such that the rotating shaft (103) comes in contact with the outer layer (104) of the three rollers (102-1), (102-2), (102-3) thereby provide support to RPB (101).

The present disclosure relates to a storage container end support device including: a storage container having a nozzle part adapted to flow a gas therein and thereout of; a base module adapted to support the storage container in such a way as to allow the storage container to communicate with a flow path formed therein if the storage container slides in one direction; and a fastening module located inside the base module in such a way as to allow the storage container to slide in one direction, so that if the storage container escapes from the base module, the fastening module slides in the opposite direction to one direction.

A scanning Tele camera, STC, comprising: an optical path folding element, OPFE, for folding a first optical path OP1 to a second optical path OP2; an OPFE actuator; a lens with a maximum lens aperture height H<A> along OP1; and an image sensor. The STC has a STC native field-of-view n-FOVT, wherein the OPFE actuator is configured to rotate the OPFE around a first rotation axis perpendicular to both OP1 and OP2 and around a second rotation axis parallel to OP1 for scanning a scene with the n-FOVT. The STC is included in a camera module. The camera module is divided into a module region having a module region height H<M> and a shoulder region having a shoulder region height H<S> < H<M>, both H<M> and H<S> measured along OP1, and wherein H<S> < H<A> + 3mm.

The present invention relates to a novel laser powder bed fusion (LPBF) printing device, as well as a method for LPBF manufacturing of 3D objects from metallic glasses, wherein the crystalline fraction of the resulting 3D printed object can be controlled by optimizing one or more LPBF process parameters prior to printing.

Folded Tele cameras comprising a lens including a plurality of lens elements divided into a first lens group (G1) and a second lens group (G2) and having an EFL in the range of 8mm<EFL<40mm, an image sensor, an optical path folding element (OPFE) for folding a first optical path (OP1) to a second optical path (OP2), wherein G1 is located at an object side of the OPFE, and wherein G2 is located at an image side of the OPFE, the OPFE having a height H<O> measured along OP1, and an optical image stabilization (OIS) actuator operational to perform OIS and including a single motor for performing OIS along a first OIS direction by jointly rotating G1 around a G1 rotation axis by a G1 rotational stroke (Rot<G1>) and by rotating the OPFE around an OPFE rotation axis by an OPFE rotational stroke (Rot<OPFE>) < Rot<G1>, wherein the G1 rotation axis and the OPFE rotation axis are parallel to each other and perpendicular to both OP1 and OP2, and wherein a distance d<ROT> between the G1 rotation axis and the OPFE rotation axis fulfills d<ROT> < H<O>/2.

The present invention discloses a device (1) for receiving an initial sequence (2) of polarized photons, modifying the polarization of each of said photons and performing measurements upon each of said photons according to an embodiment of the present invention. The device (1) comprises a beam splitter (3); two half-wave plates (4, 4'), two quarter-wave plates (5, 5'); two polarizer beam splitters (6, 6'), four single-photon detectors (7, 7', 7", 7‴), tagging means (8) connected to the single-photon detectors (7, 7', 7", 7‴) and rotating means (9) connected to the half-wave (4, 4') and quarter-wave plates (5, 5'). These elements are arranged and configured in such a way that the polarization of each photon comprised in the incoming light beam or initial sequence (2) of photons can be corrected before decoding. A system for transmitting a cryptographic key according to a Quantum Key Distribution, protocol with polarization correction and a method for correcting the polarization of each photon comprised in the sequence of photons used in the transmission of a cryptographic key according to a QKD protocol are also disclosed.

The present invention relates to an implant device (1) suitable for treatments based on delivering pulsed radiofrequency (PRF) electric fields to a treatment target area (2) of a subject's body. The implant device (1) comprises at least a plurality of primary electrodes (4) and an electronic circuit (5) connected to said plurality of primary electrodes (4). The plurality of primary electrodes (4) comprises at least a volume conduction electrode pair (4') comprised by a treatment electrode (4") and a return electrode (4‴), which are adapted to pick-up and channel input electrical energy flowing through a tissue of the subject's body in the form of a plurality of radiofrequency electric current pulses (16). The electronic circuit (5) is adapted to regulate said input electrical energy and deliver pulsed radiofrequency electric fields, through the treatment electrode (4"), to the treatment target area (2) of the subject's body. The invention also relates to a system (9) for applying treatments based on delivering pulsed radiofrequency electric fields, which comprises an implant device (1).

The present invention provides a device for obtaining data from a sample. This device comprises an external equipment with a laser source, a Raman spectrometer and an external LIBS spectrometer and a handheld probe. An excitation barrel (1) is configured to produce a collimated laser beam, the first folding mirror (2) is arranged to reflect the collimated laser beam and the first dichroic (3) is configured to project the reflected collimated laser beam into a first direction. A LIBS excitation source (6) is configured to produce a pulsed laser beam, a beam expander (7) is configured to produce an expanded laser beam with the same collimation status as the collimated laser beam, the second folding mirror (8) is arranged to reflect the expanded laser beam and the second dichroic (9) is configured to project the reflected expanded laser beam into the first direction. A focuser (4) is arranged in the first direction and is arranged to receive the reflected collimated laser light and the reflected expanded laser beam and focus them on a focusing point. The device further comprises a Raman collection barrel (5) and a LIBS collection barrel (10). Finally, an optical component (12) is configured to reflect part of the sample light coming from the focuser (4), a diaphragm (13) is configured to receive the light reflected by the optical component (12) and a camera system is configured to receive the light which passes through the diaphragm (13).

A fast-charging battery cell, a lithium-ion battery, and an electric product are disclosed, which relates to the field of new energy technology. In the fast-charging battery cell provided, the positive electrode is provided with positive electrode coating gaps, and the negative electrode is provided with negative electrode coating gaps. By optimizing the positions of the positive electrode coating gaps and negative electrode coating gaps, the ability of the negative electrode to accept lithium ions is enhanced, the increase in side reactions is minimized and the pressure at the corners is alleviated. As a result, the rate performance and cycling performance of the fast-charging battery cell are enhanced. A lithium-ion battery and an electric product comprising the above fast-charging battery cell are also provided.