mhurhangee/patent-ind-claim-en huggingface dataset:
Method for mutually separating particles of plastic foil and particles of organic material, the method comprising of: - arranging perforations in a wall of a chamber ; - feeding (A) a mixture comprising particles of plastic foil and particles of organic material into the chamber through a feed opening provided for the purpose; - setting the mixture into a rotating movement inside the chamber by means of a rotor such that in the vicinity of the perforations a centrifugal force to which a particle is subjected is at least fifty times greater than a gravitational force to which the particle is subjected; - generating a first airflow (B) in the chamber parallel to a rotation axis of the rotor; - discharging (C) through a first discharge opening particles of organic material which have left chamber through the perforations; and - discharging (D) through a second discharge opening particles of plastic foil carried along by the first airflow. - arranging perforations in a wall of a chamber ; - feeding (A) a mixture comprising particles of plastic foil and particles of organic material into the chamber through a feed opening provided for the purpose; - setting the mixture into a rotating movement inside the chamber by means of a rotor such that in the vicinity of the perforations a centrifugal force to which a particle is subjected is at least fifty times greater than a gravitational force to which the particle is subjected; - generating a first airflow (B) in the chamber parallel to a rotation axis of the rotor; - discharging (C) through a first discharge opening particles of organic material which have left chamber through the perforations; and - discharging (D) through a second discharge opening particles of plastic foil carried along by the first airflow.
A device for manufacturing and storing ice, in particular for cooling and air-conditioning systems, comprising a closed heat-insulated storage tank (A) with a water reservoir (W) embedded inside having a plurality of inner chambers (K), separated by heat exchange units horizontally mounted and at intervals above each other with tubular heat exchangers each for being incorporated in parallel in a thermodynamic medium circuit of a heat pump through an inlet collector and an outlet collector , in parallel position and connected through perpendicular tubular flow channels heat-welded together by a plate of a radiator , wherein the device is incorporated in a heat pump circuit (S, Wc, Zr) comprising a valve assembly (Z4) controlling the flow direction of the thermodynamic medium, characterized in that each heat exchange unit consists of two identical heat exchangers incorporated in parallel in the heat pump circuit (S, Wc, Zr) of the exchangers having final sections (10.1, 10.2) of flow channel connections (5.1, 5.2) to the outlet collector (8.1, 8.2) bent off the radiator plate (9-9) - determined by long, straight sections of the flow channels (5.1, 5,2) coming out from an inlet collector (7.1, 7.2) - by a dimension (e) greater than half the sum of the outside diameters (d1, d2) of the inlet (7.1, 7.2) and outlet (8.1, 8.2) collector, the heat exchangers being superimposed so that straight long sections of the flow channels ( 5.1, 5.2) alternate with each other in the plane of the radiator (9-9) and the inlet collectors (7.1, 7.2) in both heat exchangers are arranged above the outlet collectors (8.1, 8.2), wherein a tubular nozzle distributor , having many nozzle orifices on the side, directing coaxially to the flow channels , and whose diameters (d3) increase successively from the end of the thermodynamic medium supply is inserted longitudinally to the inside of each inlet collectors (7.1, 7.2).
A multi-band antenna apparatus, comprising: an antenna housing comprising antenna modules for two or more frequency bands; a plurality of radio remote heads, RRHs, detachably coupled to the antenna housing ; connector portions each electrically connected with one of the plurality of radio remote heads and protruding from the antenna housing ; a first guiding bracket and a second guiding bracket for fastening the antenna housing to a mast and individually and detachably coupling the plurality of radio remote heads to the antenna housing such that the radio remote heads may slide along the guiding brackets , wherein the first guiding bracket is provided on an upper surface of the antenna housing , the second guiding bracket is provided on a lower surface of the antenna housing , and further comprising a third guiding bracket provided between the first guiding bracket and the second guiding bracket on the antenna housing , wherein a first mount space (S1) for mounting the first RRH is provided between the first guiding bracket and the third guiding bracket , and a second mount space (S2) for mounting the second RRH is provided between the second guiding bracket and the third guiding bracket . an antenna housing comprising antenna modules for two or more frequency bands; a plurality of radio remote heads, RRHs, detachably coupled to the antenna housing ; connector portions each electrically connected with one of the plurality of radio remote heads and protruding from the antenna housing ; a first guiding bracket and a second guiding bracket for fastening the antenna housing to a mast and individually and detachably coupling the plurality of radio remote heads to the antenna housing such that the radio remote heads may slide along the guiding brackets , wherein the first guiding bracket is provided on an upper surface of the antenna housing , the second guiding bracket is provided on a lower surface of the antenna housing , and further comprising a third guiding bracket provided between the first guiding bracket and the second guiding bracket on the antenna housing , wherein a first mount space (S1) for mounting the first RRH is provided between the first guiding bracket and the third guiding bracket , and a second mount space (S2) for mounting the second RRH is provided between the second guiding bracket and the third guiding bracket .
Device for processing a digitally printed paper web that is conveyed continuously through the device, comprising a perforating tool for perforating the paper web transversely with respect to the running direction (T), and comprising a cutting tool for cutting off printed sheets (8', 8", 78', 78") from a downstream end of the paper web , which are each arranged on a first side of the paper web and transversely or approximately transversely with respect to the running direction (T) of the paper web , and comprising at least one mating tool arranged on a second side of the paper web that is opposite the first side , characterized in that • the device has a common tool carrier for holding the perforating tool and the cutting tool , • the device has a rotating cutting drum for holding the at least one mating tool and having an axis of rotation oriented transversely or approximately transversely with respect to the running direction (T) of the paper web , • the perforating tool and the cutting tool are fixed to the tool carrier at a distance from each other, • the tool carrier can optionally be moved into two working positions , in which in each case the perforating tool or the cutting tool can be brought into engagement with the at least one mating tool to process the paper web . • the device has a common tool carrier for holding the perforating tool and the cutting tool , • the device has a rotating cutting drum for holding the at least one mating tool and having an axis of rotation oriented transversely or approximately transversely with respect to the running direction (T) of the paper web , • the perforating tool and the cutting tool are fixed to the tool carrier at a distance from each other, • the tool carrier can optionally be moved into two working positions , in which in each case the perforating tool or the cutting tool can be brought into engagement with the at least one mating tool to process the paper web .
A communication method of a base station, the communication method comprising: measuring, by the base station, a common reference signal, CRS, power transmitted from a heterogeneous cell to a terminal; determining, by the base station, an interference using the CRS power; transmitting (775; 777) information about the interference to a higher node entity; receiving (781; 783) information about an almost blank subframe, ABS, pattern, determined by the higher node entity based on the information about the interference, from the higher node entity; and performing a scheduling (785; 787) based on the information about the ABS pattern. measuring, by the base station, a common reference signal, CRS, power transmitted from a heterogeneous cell to a terminal; determining, by the base station, an interference using the CRS power; transmitting (775; 777) information about the interference to a higher node entity; receiving (781; 783) information about an almost blank subframe, ABS, pattern, determined by the higher node entity based on the information about the interference, from the higher node entity; and performing a scheduling (785; 787) based on the information about the ABS pattern.
A machine for three-dimensional measurement of an imperfect graphite cylindrical part of between 3000 kg and 4000 kg for electrodes, with two bases or faces and an outer surface therebetween, characterised in that it comprises: - transport and positioning means that is adapted to act on the outer surface of the part - clamping means that is adapted to act on the two bases or faces of the part - three-dimensional scanning means for 3D scanning of the outer surface of the part , and - a processor connected to the transport, positioning and clamping means for the control thereof, as well as to the scanning means to perform a three-dimensional measurement of the outer surface of the clamped part , determining the Cartesian and angular axes at the ends of the part on the basis of the 3D measurement, in order to calculate the axis of revolution of the cylinder with the largest possible dimensions that can be inscribed in said part in order to subsequently obtain it by the machining thereof. - transport and positioning means that is adapted to act on the outer surface of the part - clamping means that is adapted to act on the two bases or faces of the part - three-dimensional scanning means for 3D scanning of the outer surface of the part , and - a processor connected to the transport, positioning and clamping means for the control thereof, as well as to the scanning means to perform a three-dimensional measurement of the outer surface of the clamped part , determining the Cartesian and angular axes at the ends of the part on the basis of the 3D measurement, in order to calculate the axis of revolution of the cylinder with the largest possible dimensions that can be inscribed in said part in order to subsequently obtain it by the machining thereof.
An apparatus, comprising: a brake to engage an output shaft of a motor ; a brake release arm operatively engaged to the brake; and a reaction arm to be fixed relative to the brake release arm and operatively coupled to the motor to cause the brake to disengage the output shaft of the motor in response to a reaction torque of the motor ; characterized by the break release arm having two release arm protrusions (320; 322), one release arm protrusion engaging a first brake pad and the other release arm protrusion engaging a second brake pad ; wherein, in response to the reaction torque of the motor , the break release arm pivots about a release arm pivot , and one release arm protrusion engages and moves the first brake pad in a first direction and the other release arm protrusion engages and moves the second brake pad in a second direction, opposite to the first direction, to disengage the brake from the output shaft . a brake to engage an output shaft of a motor ; a brake release arm operatively engaged to the brake; and a reaction arm to be fixed relative to the brake release arm and operatively coupled to the motor to cause the brake to disengage the output shaft of the motor in response to a reaction torque of the motor ; characterized by the break release arm having two release arm protrusions (320; 322), one release arm protrusion engaging a first brake pad and the other release arm protrusion engaging a second brake pad ; wherein, in response to the reaction torque of the motor , the break release arm pivots about a release arm pivot , and one release arm protrusion engages and moves the first brake pad in a first direction and the other release arm protrusion engages and moves the second brake pad in a second direction, opposite to the first direction, to disengage the brake from the output shaft .
Hydraulic and electrical interface ring for a turbine engine, characterised in that it comprises ducts for transferring fluid passing axially through the ring and the axial ends of which form axial interlocking means, the ring further comprising means for supporting at least one electrical equipment , and at least one connector for electrically connecting the equipment, said connector being configured to interact by axial interlocking with a complementary electrical connector of another part .
A vacuum cleaner , comprising: a primary suction nozzle ; a first suction source fluidly connected to the primary suction nozzle and configured to create a working airstream; and a separation module configured for separating contaminants from the working airstream, the separation module , comprising: a separation module housing ; at least one separation chamber defined within the separation module housing and having an air inlet in fluid communication with the primary suction nozzle ; at least one collection chamber defined within the separation module and fluidly coupled with the at least one separation chamber , where the at least one collection chamber is configured to receive contaminants separated by the at least one separation chamber ; and a door , the door moveable between a closed position wherein the door at least partially defines a bottom surface to the at least one collection chamber and an opened position where debris can be emptied; characterized by an auxiliary suction nozzle located adjacent at least a portion of a lower end of the separation module housing and adapted for ingesting debris. a primary suction nozzle ; a first suction source fluidly connected to the primary suction nozzle and configured to create a working airstream; and a separation module configured for separating contaminants from the working airstream, the separation module , comprising: a separation module housing ; at least one separation chamber defined within the separation module housing and having an air inlet in fluid communication with the primary suction nozzle ; at least one collection chamber defined within the separation module and fluidly coupled with the at least one separation chamber , where the at least one collection chamber is configured to receive contaminants separated by the at least one separation chamber ; and a door , the door moveable between a closed position wherein the door at least partially defines a bottom surface to the at least one collection chamber and an opened position where debris can be emptied; characterized by an auxiliary suction nozzle located adjacent at least a portion of a lower end of the separation module housing and adapted for ingesting debris. a separation module housing ; at least one separation chamber defined within the separation module housing and having an air inlet in fluid communication with the primary suction nozzle ; at least one collection chamber defined within the separation module and fluidly coupled with the at least one separation chamber , where the at least one collection chamber is configured to receive contaminants separated by the at least one separation chamber ; and a door , the door moveable between a closed position wherein the door at least partially defines a bottom surface to the at least one collection chamber and an opened position where debris can be emptied; characterized by an auxiliary suction nozzle located adjacent at least a portion of a lower end of the separation module housing and adapted for ingesting debris.
Vehicle headlight having at least one dipped-beam light module and at least one appearance light module, which are designed, arranged and oriented such - that less than 30%, in particular less than 20% or less than 10% or less than 5% or less than 3%, of the luminous intensity emitted by the vehicle headlight with respect to the vertical alignment above the cut-off and with respect to the horizontal alignment in the direction of travel is generated by the dipped-beam light module in a dipped-beam light mode, in particular for realizing a dipped-beam light distribution, - that more than 70%, in particular more than 80% or more than 90% or more than 95% or more than 97%, of the luminous intensity emitted by the vehicle headlight with respect to the vertical alignment above the cut-off and with respect to the horizontal alignment in the direction of travel is generated by the appearance light module in the dipped-beam light mode, - that more than 90%, in particular more than 99%, of the luminous intensity emitted by the vehicle headlight with respect to the horizontal alignment in the direction of travel is generated by the appearance light module in a daytime running light mode, in particular for generating a daytime running light distribution, and - wherein the appearance light module in the dipped-beam light mode is dimmed compared to the daytime running light mode, but only to such an extent that the maxima in the legal stipulations relating to the overall light distribution are not exceeded. - that less than 30%, in particular less than 20% or less than 10% or less than 5% or less than 3%, of the luminous intensity emitted by the vehicle headlight with respect to the vertical alignment above the cut-off and with respect to the horizontal alignment in the direction of travel is generated by the dipped-beam light module in a dipped-beam light mode, in particular for realizing a dipped-beam light distribution, - that more than 70%, in particular more than 80% or more than 90% or more than 95% or more than 97%, of the luminous intensity emitted by the vehicle headlight with respect to the vertical alignment above the cut-off and with respect to the horizontal alignment in the direction of travel is generated by the appearance light module in the dipped-beam light mode, - that more than 90%, in particular more than 99%, of the luminous intensity emitted by the vehicle headlight with respect to the horizontal alignment in the direction of travel is generated by the appearance light module in a daytime running light mode, in particular for generating a daytime running light distribution, and - wherein the appearance light module in the dipped-beam light mode is dimmed compared to the daytime running light mode, but only to such an extent that the maxima in the legal stipulations relating to the overall light distribution are not exceeded.
A transfer device for a patient care apparatus comprising: a first docking cup and a second docking cup , each of the first docking cup and the second docking cup sized to receive a receiver ; and a security mechanism enclosed within the transfer device , to securely lock an engaged docking cone to the respective docking cup, wherein the transfer device further comprises a support shaft and a shaft brake mechanism engageable with the support shaft , wherein the shaft brake mechanism includes a brake pad , a plate, and a brake fastener , wherein the brake pad includes a "double-D" anti-rotation cutout fixing the rotational position of the brake pad by coupling the brake pad to support shaft , wherein the anti-rotation cutout matches the cross-sectional shape of the support shaft at the lower end where the support shaft defines a pair of flats and wherein the brake fastener is adapted to increase a force holding the brake pad to the plate when the brake fastener is tightened, fixing the rotational position of support shaft with respect to the transfer device . a first docking cup and a second docking cup , each of the first docking cup and the second docking cup sized to receive a receiver ; and a security mechanism enclosed within the transfer device , to securely lock an engaged docking cone to the respective docking cup, wherein the transfer device further comprises a support shaft and a shaft brake mechanism engageable with the support shaft , wherein the shaft brake mechanism includes a brake pad , a plate, and a brake fastener , wherein the brake pad includes a "double-D" anti-rotation cutout fixing the rotational position of the brake pad by coupling the brake pad to support shaft , wherein the anti-rotation cutout matches the cross-sectional shape of the support shaft at the lower end where the support shaft defines a pair of flats and wherein the brake fastener is adapted to increase a force holding the brake pad to the plate when the brake fastener is tightened, fixing the rotational position of support shaft with respect to the transfer device .
A power drive unit, PDU, for moving cargo within an aircraft, comprising: an actuator configured to move a unit load device, ULD, , relative to the PDU; characterized in that the PDU comprises a network access device configured to receive a second PDU state corresponding to a second PDU, and to transmit data; and a controller configured to determine a current state of the PDU based on sensor data corresponding to presence of the ULD above the PDU and based on the second PDU state, and to control the actuator based on the current state of the PDU. an actuator configured to move a unit load device, ULD, , relative to the PDU; characterized in that the PDU comprises a network access device configured to receive a second PDU state corresponding to a second PDU, and to transmit data; and a controller configured to determine a current state of the PDU based on sensor data corresponding to presence of the ULD above the PDU and based on the second PDU state, and to control the actuator based on the current state of the PDU.