mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a consumption value recording apparatus , wherein data, in particular parameters, of a volume transmitter are stored in a storage unit associated with the volume transmitter , wherein the volume transmitter is coupled to an electronic meter and wherein the data of the volume transmitter are transmitted to the electronic meter , characterized in that the data are stored in the storage unit associated with the volume transmitter in encrypted form.
Container handling device, in particular a closing machine for closing cans or similar containers with a closure lid along a container handling section (BR) running in a handling direction (A), comprising at least one first transporter , a rotor located downstream of the first transporter in the handling direction (A) along the container handling section (BR), at the circumference of which are formed several container closing stations (BS) for closing the containers with a closure lid provided in each case from a closure lid delivery conveyor , wherein the rotor is arranged such as to circulate about a central column which extends along a vertical machine axis (MA) and is fixed in position, wherein the container closing stations (BS) rotating about the central column comprise in each case at least one punch device , arranged such as to move downwards and upwards at the rotor , as well as a container carrier provided beneath the punch device , which is provided such as to move in rotation and rising upwards on a carrier rim , said rim being driven by means of a motor such as to circulate about the central column beneath the rotor , characterised in that the first transporter is configured as a linear conveyor, by means of which the containers , not yet closed and standing upright with their container bases (2.1) on a transport plane (TE), can be conveyed in the handling direction (A), and are transferred to a corresponding container closing station (BS) of the rotor being driven by a motor such as to circulate about the central column , and that arranged between at least two adjacent container closing stations (BS) is a transfer thrust element , which encloses the respective container carrier around at least part of its circumference and is provided such as to rotate together with the container closing station (BS), and wherein the transfer thrust element forms on its upper side (OS) a transfer thrust plane (ÜE), for the planar thrust transfer of the upright container from the transport plane (TE) onto the transfer thrust plane (ÜE) spanned by the transfer thrust element , inasmuch as the transfer thrust plane (ÜE) together with the transport plane (TE) spans a common plane (GE).
Method for manufacturing a porous packing for chromatography which comprises a plurality of capillary channels which extend in the direction of flow of a liquid, gaseous or supercritical mobile phase within said packing, said method comprising the following steps: - a bundle of elementary fibres is assembled, said fibres comprising a core made of a solid or liquid material, and a shell made of a drawable material adapted to be made porous, the shell material being a borosilicate glass or a thermoplastic polymer comprising a pore-forming material and a binder, - said bundle is drawn in order to reduce the diameter of said fibres, - a porous matrix is made around the core of the drawn fibres, the manufacture of said porous matrix comprising a spinodal decomposition of the borosilicate glass or a chemical attack or solubilisation of the pore-forming material of the polymer, said porous matrix comprising at least one population of connected pores interconnecting the channels formed by the core of each drawn fibre, where the mean thickness of the porous matrix between two adjacent channels, determined by scanning electron microscopy image analysis on a section of the packing parallel to the channels, is less than the mean diameter of the channels determined by image analysis on a section of the packing parallel to the channels, preferably less than half the mean diameter of the channels, - the core material is removed so as to leave free channels in the porous matrix. - a bundle of elementary fibres is assembled, said fibres comprising a core made of a solid or liquid material, and a shell made of a drawable material adapted to be made porous, the shell material being a borosilicate glass or a thermoplastic polymer comprising a pore-forming material and a binder, - said bundle is drawn in order to reduce the diameter of said fibres, - a porous matrix is made around the core of the drawn fibres, the manufacture of said porous matrix comprising a spinodal decomposition of the borosilicate glass or a chemical attack or solubilisation of the pore-forming material of the polymer, said porous matrix comprising at least one population of connected pores interconnecting the channels formed by the core of each drawn fibre, where the mean thickness of the porous matrix between two adjacent channels, determined by scanning electron microscopy image analysis on a section of the packing parallel to the channels, is less than the mean diameter of the channels determined by image analysis on a section of the packing parallel to the channels, preferably less than half the mean diameter of the channels, - the core material is removed so as to leave free channels in the porous matrix.
Inductive component comprising a copper wire winding and a coating mass surrounding the copper wire winding , wherein the coating mass comprises a matrix and at least a first filler , - wherein the matrix comprises at least one selected from alumina cement, phosphate cement, SiO 2 , MgO and reactive alumina and - wherein the first filler comprises at least one soft magnetic powder, further comprising in the coating mass at least a second filler , the second filler comprising Al 2 O 3 , wherein the total mass of first filler , based on the total mass of the first and second fillers , is 1 to 50 mass% and wherein the total mass of second filler , based on the total mass of the first and second fillers , is 50 to 99 mass%. - wherein the matrix comprises at least one selected from alumina cement, phosphate cement, SiO 2 , MgO and reactive alumina and - wherein the first filler comprises at least one soft magnetic powder, further comprising in the coating mass at least a second filler , the second filler comprising Al 2 O 3 ,
Machine for processing slabs (L), comprising: - a device for transporting the slabs (L) between two zones, at least one of which is a machining zone along a feeding direction (X); - means for supporting and clamping the slabs, designed to clamp the slabs (L) in a machining position; - at least one tool for machining the slabs, mounted on a spindle, said at least one tool being operative in the machining zone; wherein the machine comprises means for moving said transporting device , configured to move said transporting device from a working position corresponding substantially to said position for machining the slabs (L) into a position spaced at least vertically from said working position, and vice versa; and wherein said transporting device comprises a conveyor belt; characterized in that said movement means are configured to move said conveyor belt from a raised working position corresponding substantially to said positioning for machining of the slabs (L) into a lowered position spaced from said working position, and vice versa. - a device for transporting the slabs (L) between two zones, at least one of which is a machining zone along a feeding direction (X); - means for supporting and clamping the slabs, designed to clamp the slabs (L) in a machining position; - at least one tool for machining the slabs, mounted on a spindle, said at least one tool being operative in the machining zone; wherein the machine comprises means for moving said transporting device , configured to move said transporting device from a working position corresponding substantially to said position for machining the slabs (L) into a position spaced at least vertically from said working position, and vice versa; and wherein said transporting device comprises a conveyor belt; characterized in that said movement means are configured to move said conveyor belt from a raised working position corresponding substantially to said positioning for machining of the slabs (L) into a lowered position spaced from said working position, and vice versa.
Alignment system for a light curtain monitoring a protective field, said light curtain comprising a first support element and a second support element , wherein said protective field is covered by radiation transmitted between said support elements, wherein said alignment system comprises at least one alignment radiation source for being arranged on the first support element and at least one alignment radiation receiver , for being arranged on said second support element , for receiving the alignment radiation and for providing an alignment signal indicating a correct positioning of the two support elements with respect to each other, said alignment system further comprising at least one optical unit having an optical processing element for generating a defined pattern from the radiation emitted by said alignment radiation source, characterised in that : said optical processing element comprises a micro-structured Diffractive Optical Element, DOE, an optical grating structure and/or a prismatic structure, the optical processing element being operable to split the radiation emitted by said alignment radiation source into a plurality of beams including an angle (α min , α max ) for forming the pattern .
An integrated circuit, IC, package having a test access port , TAP, comprising a test data input, TDI, test data output, TDO, test clock, TCK, and test mode select, TMS, the IC package comprising: a master IC die including a master Joint Test Action Group, JTAG, controller and a master wrapper circuit coupled to the master JTAG controller, the master wrapper circuit comprising a first demultiplexer having an input coupled to a TDO of the master JTAG controller, and a first output coupled to an output (116M-1) of the master wrapper circuit; a slave IC die including a slave JTAG controller and a slave wrapper circuit coupled to the slave JTAG controller; a forwarding path coupling the output of the master wrapper circuit to a first input (116S-2) of the slave wrapper circuit; and a master return path coupling a first output (116S-3) of the slave wrapper circuit to an input (116M-4) of the master wrapper circuit; and wherein the master wrapper circuit couples the TDI of the TAP to a TDI of the master JTAG controller, and selectively couples, based on a first control signal (228-2), the TDO of the TAP to either the master return path or the TDO of the master JTAG controller. a master IC die including a master Joint Test Action Group, JTAG, controller and a master wrapper circuit coupled to the master JTAG controller, the master wrapper circuit comprising a first demultiplexer having an input coupled to a TDO of the master JTAG controller, and a first output coupled to an output (116M-1) of the master wrapper circuit; a slave IC die including a slave JTAG controller and a slave wrapper circuit coupled to the slave JTAG controller; a forwarding path coupling the output of the master wrapper circuit to a first input (116S-2) of the slave wrapper circuit; and a master return path coupling a first output (116S-3) of the slave wrapper circuit to an input (116M-4) of the master wrapper circuit; and wherein the master wrapper circuit couples the TDI of the TAP to a TDI of the master JTAG controller, and selectively couples, based on a first control signal (228-2), the TDO of the TAP to either the master return path or the TDO of the master JTAG controller.
A method of operating a relay device in an electrical circuit comprising a first main circuit breaker , a second main circuit breaker , and a bus tie breaker connecting the first and second main circuit breakers , characterized in that the method comprises; computing a current phasor for each of the first main circuit breaker and the second main circuit breaker , respectively; computing a voltage phasor for each of the first main circuit breaker and the second main circuit breaker , respectively; determining a fault has occurred when a magnitude of a current through at least one of the first and second main circuit breakers exceeds a predetermined threshold; determining a phase angle difference by comparing a phase angle of the current phasor with a phase angle of the voltage phasor for each of the at least one of the first and second main circuit breakers having the current determined to exceed the predetermined threshold; determining whether the fault (F1, F2, F3, F4, F5) is located upstream or downstream of the at least one of the first and second main circuit breakers having the current determined to exceed the predetermined threshold, by comparing the phase angle difference to a predetermined amount.
Tubular component for a pressurised-water nuclear reactor, having the following composition by weight: - 0.8% ≤ Nb ≤ 2.8% ; - traces ≤ Sn ≤ 0.65% ; - 0.015% ≤ Fe ≤ 0.40% ; preferably 0.020 % ≤ Fe ≤ 0.35 % ; - traces ≤ C ≤ 100 ppm ; - 600 ppm ≤ O ≤ 2300 ppm ; preferably 900 ppm ≤ O ≤ 1800 ppm ; - 5 ppm ≤ S ≤ 100 ppm ; preferably 8 ppm ≤ S ≤ 35 ppm ; - traces ≤ Cr + V + Mo + Cu ≤ 0.35% ; - traces ≤ Hf ≤ 100 ppm ; - F ≤ 1 ppm ; the remainder being zirconium and impurities resulting from production, the outer surface of which has a roughness Ra less than or equal to 0.5 μm, obtained following a final mechanical polishing step, characterised in that its outer surface has a roughness Rsk ≤ 1 in absolute value and a roughness Rku ≤ 10. - 0.8% ≤ Nb ≤ 2.8% ; - traces ≤ Sn ≤ 0.65% ; - 0.015% ≤ Fe ≤ 0.40% ; preferably 0.020 % ≤ Fe ≤ 0.35 % ; - traces ≤ C ≤ 100 ppm ; - 600 ppm ≤ O ≤ 2300 ppm ; preferably 900 ppm ≤ O ≤ 1800 ppm ; - 5 ppm ≤ S ≤ 100 ppm ; preferably 8 ppm ≤ S ≤ 35 ppm ; - traces ≤ Cr + V + Mo + Cu ≤ 0.35% ; - traces ≤ Hf ≤ 100 ppm ; - F ≤ 1 ppm ;
A method of automatically detecting a change in a lighting system comprising a plurality of devices each comprising a luminaire and/or a sensor , wherein each respective one of the devices has a respective location recorded in a commissioning database in a cloud or back end server in association with lighting data reported by the respective device to the cloud or back end server , wherein lighting data includes a value of a characteristic of the respective device; the method comprising: identifying a subset of said devices located within a predetermined spatial demarcation ; the method characterised by comprising: automatically monitoring the respective value of the characteristic of each of the devices in said subset as reported by each of the devices to the cloud or back end server , thereby forming a data cluster comprising the values of said characteristic for the devices in the subset; automatically detecting a change in the lighting system by detecting a shift in one of the values relative to the rest of the values in the data cluster ; and in response to said detection, automatically outputting an indication that the commissioning database is likely to require updating to reflect said change. identifying a subset of said devices located within a predetermined spatial demarcation ; automatically monitoring the respective value of the characteristic of each of the devices in said subset as reported by each of the devices to the cloud or back end server , thereby forming a data cluster comprising the values of said characteristic for the devices in the subset; automatically detecting a change in the lighting system by detecting a shift in one of the values relative to the rest of the values in the data cluster ; and in response to said detection, automatically outputting an indication that the commissioning database is likely to require updating to reflect said change.
A temperature management apparatus for a printing device comprising: a processor ; and a memory storing machine readable instructions that when executed by the processor cause the processor to: ascertain a print speed associated with a print job; characterized in that the instructions are to cause the processor to: in response to a determination that the print speed is greater than or equal to a specified print speed threshold, actuate a print bar heating power supply and a print bar control power supply to respectively heat and control operation of a print bar of the printing device; and in response to a determination that the print speed is less than the specified print speed threshold, actuate , at or beyond a specified location along a path associated with traversal of a physical medium from a start position to a print zone of the printing device, the print bar heating power supply and the print bar control power supply to reduce an operational temperature associated with the print bar. a processor ; and a memory storing machine readable instructions that when executed by the processor cause the processor to: ascertain a print speed associated with a print job; characterized in that the instructions are to cause the processor to: in response to a determination that the print speed is greater than or equal to a specified print speed threshold, actuate a print bar heating power supply and a print bar control power supply to respectively heat and control operation of a print bar of the printing device; and in response to a determination that the print speed is less than the specified print speed threshold, actuate , at or beyond a specified location along a path associated with traversal of a physical medium from a start position to a print zone of the printing device, the print bar heating power supply and the print bar control power supply to reduce an operational temperature associated with the print bar. in response to a determination that the print speed is greater than or equal to a specified print speed threshold, actuate a print bar heating power supply and a print bar control power supply to respectively heat and control operation of a print bar of the printing device; and in response to a determination that the print speed is less than the specified print speed threshold, actuate , at or beyond a specified location along a path associated with traversal of a physical medium from a start position to a print zone of the printing device, the print bar heating power supply and the print bar control power supply to reduce an operational temperature associated with the print bar.
A wavelength conversion element , comprising: a substrate ; a wavelength conversion layer , disposed on the substrate , wherein the wavelength conversion layer includes an inorganic adhesive and a wavelength conversion material , and the wavelength conversion material is mixed with the inorganic adhesive ; and a first inorganic interstitial layer , disposed between the wavelength conversion layer and the substrate , wherein a thickness (T1) of the first inorganic interstitial layer in a direction perpendicular to the substrate increases from a center towards an edge, or decreases from a center towards an edge, and a surface of the first inorganic interstitial layer facing the substrate is flat. a substrate ; a wavelength conversion layer , disposed on the substrate , wherein the wavelength conversion layer includes an inorganic adhesive and a wavelength conversion material , and the wavelength conversion material is mixed with the inorganic adhesive ; and a first inorganic interstitial layer , disposed between the wavelength conversion layer and the substrate , wherein a thickness (T1) of the first inorganic interstitial layer in a direction perpendicular to the substrate increases from a center towards an edge, or decreases from a center towards an edge, and a surface of the first inorganic interstitial layer facing the substrate is flat.
A pipe socket of an electrical installation housing, for receiving one end of a pipe , comprising a pipe receiving section , which is open on the side thereof provided for the insertion of the pipe and is closed on the other side thereof by a wall , the wall including a predetermined breaking point so that a region of the wall can be broken out, and a pipe contact element being attached on the region of the wall that can be broken out, which is designed in such a way that the pipe contact element extends from the wall into the interior of the pipe receiving section and includes a pipe contact surface facing the inner wall of the pipe receiving section , characterized in that , with increasing distance from the wall , the pipe contact surface is located further away from the inner wall of the pipe receiving section , so that a moment is transferred to the region of the wall that can be broken out when a pipe is inserted into the pipe receiving section , so that, as the pipe is progressively inserted into the pipe receiving section and the pipe is pushed onto the pipe contact element , the pipe contact element experiences increasingly higher lateral forces, and the region of the wall that can be broken out is broken out and ultimately ejected from the pipe socket.
A radio frequency mixer apparatus (100; 200; 200A; 200B) comprising: a plurality of transformers (118, 120, 122; 232, 234, 260, 262); wherein each of the plurality of transformers includes a primary side (118a, 120a, 122a; 232a, 234a, 260a 262a) and a secondary side (118b, 120b, 122b; 232b, 234b, 260b, 262b); wherein the primary sides of each transformer are connected in series; a radio frequency (RF) port (RF; 202), wherein the primary sides of each transformer are coupled to the radio frequency port in series; and a plurality of commutator cells (124, 126, 128; 236, 238, 264, 266); wherein each of the plurality of commutator cells is coupled to a local oscillator (LO) port (104; 204) in parallel and an intermediate frequency (IF) port (106; 206) in parallel; and wherein the secondary side of each transformer is connected to one respective commutator cell of the plurality of commutator cells; the apparatus being arranged such that in use, an input radio frequency signal is split by the plurality of transformers and output to the plurality of commutator cells, wherein the signal is down-converted. a plurality of transformers (118, 120, 122; 232, 234, 260, 262); wherein each of the plurality of transformers includes a primary side (118a, 120a, 122a; 232a, 234a, 260a 262a) and a secondary side (118b, 120b, 122b; 232b, 234b, 260b, 262b); wherein the primary sides of each transformer are connected in series; a radio frequency (RF) port (RF; 202), wherein the primary sides of each transformer are coupled to the radio frequency port in series; and a plurality of commutator cells (124, 126, 128; 236, 238, 264, 266); wherein each of the plurality of commutator cells is coupled to a local oscillator (LO) port (104; 204) in parallel and an intermediate frequency (IF) port (106; 206) in parallel; and wherein the secondary side of each transformer is connected to one respective commutator cell of the plurality of commutator cells; the apparatus being arranged such that in use, an input radio frequency signal is split by the plurality of transformers and output to the plurality of commutator cells, wherein the signal is down-converted.