mhurhangee/ep-ind-claims huggingface dataset:
Luminaire, in particular outdoor luminaire, having an illuminant carrier surface on which a plurality of LED modules are arranged, wherein the LED modules each comprise a matrix of a plurality of LEDs arranged in a plane and a reflector strip adjacent an edge of the plane and angled relative to the plane, characterized in that the LEDs each have an integrated optic which, in a cross-section through the LED perpendicular to the plane, generates two maxima of the light intensity distribution of the respective individual LED which are laterally deflected by the LED relative to the surface normal on the plane, the light radiation of the LED being reflected by the reflector strip in one of the two maxima.
An energy storage apparatus comprising: one or more energy storage devices; and an outer covering which houses the one or more energy storage devices, wherein the outer covering has a discharge portion forming a discharge path which discharges a substance generated in an inside of the energy storage apparatus toward outside of the outer covering in a first direction, and wherein an inner wall surface (400, 540, 300) of the discharge portion includes a first wall surface inclined with respect to the first direction; characterized in that the discharge path is formed by the discharge portion such that a cross-sectional area of the discharge path increases towards an outlet side of the discharge portion. one or more energy storage devices; and an outer covering which houses the one or more energy storage devices, wherein
An optical switch, comprising: a first polarization controller adapted to control a polarization direction of a phase-modulated optical signal or a frequency-modulated optical signal; an optical pulse generator adapted to generate a control pulse with a wavelength different from that of the optical signal; a second polarization controller adapted to align a polarization direction of the control pulse to a designated angle relative to the polarization direction of the optical signal, wherein the control pulse controlled by the second polarization controller and the optical signal controlled by the first polarization controller have different polarization directions; characterised by a nonlinear optical medium adapted to receive the optical signal controlled by the first polarization controller and the control pulse controlled by the second polarization controller, to change a polarization of the optical signal by cross phase modulation during a period where the optical signal coincides with the control pulse in the time domain, and to amplify the optical signal in the time domain so that the optical signal has a polarization component around the polarization direction of the control pulse by optical parametric amplification; and a polarizer, placed on the output side of said nonlinear optical medium, having a polarization main axis orthogonal to the polarization direction of the optical signal in the absence of the control pulse. a first polarization controller adapted to control a polarization direction of a phase-modulated optical signal or a frequency-modulated optical signal; an optical pulse generator adapted to generate a control pulse with a wavelength different from that of the optical signal; a second polarization controller adapted to align a polarization direction of the control pulse to a designated angle relative to the polarization direction of the optical signal, wherein the control pulse controlled by the second polarization controller and the optical signal controlled by the first polarization controller have different polarization directions; characterised by a nonlinear optical medium adapted to receive the optical signal controlled by the first polarization controller and the control pulse controlled by the second polarization controller, to change a polarization of the optical signal by cross phase modulation during a period where the optical signal coincides with the control pulse in the time domain, and to amplify the optical signal in the time domain so that the optical signal has a polarization component around the polarization direction of the control pulse by optical parametric amplification; and a polarizer, placed on the output side of said nonlinear optical medium, having a polarization main axis orthogonal to the polarization direction of the optical signal in the absence of the control pulse.
A process for the preparation of an emulsion of elemental sulphur particles, said process comprising the steps of: (a) providing a first stream comprising liquid urea fertilizer, wherein the first stream has a temperature in the range of from 60-200 °C; (b) providing a second stream comprising liquid elemental sulphur, wherein the second stream has a temperature in the range of from 115-200 °C; and (c) mixing the first stream and the second stream in a mixing device in the presence of a multifunctional ionic surfactant to form an emulsion comprising elemental sulphur particles which are coated with a layer of the multifunctional ionic surfactant and dispersed in the fertilizer, whereby mixing of the first stream and the second stream is carried out at a temperature of more than 120 °C but of at most 150 °C which maintains the elemental sulphur substantially in the liquid form in the mixing device. (a) providing a first stream comprising liquid urea fertilizer, wherein the first stream has a temperature in the range of from 60-200 °C; (b) providing a second stream comprising liquid elemental sulphur, wherein the second stream has a temperature in the range of from 115-200 °C; and (c) mixing the first stream and the second stream in a mixing device in the presence of a multifunctional ionic surfactant to form an emulsion comprising elemental sulphur particles which are coated with a layer of the multifunctional ionic surfactant and dispersed in the fertilizer, whereby mixing of the first stream and the second stream is carried out at a temperature of more than 120 °C but of at most 150 °C which maintains the elemental sulphur substantially in the liquid form in the mixing device.
A contactless power transfer system comprising: a first coil coupled to a power source and configured to produce a magnetic field; a second coil configured to receive power from the first coil via the magnetic field; and characterised by: a field focusing element configured as an Omega structure and disposed between the first coil and the second coil and configured as a self resonant coil having a standing wave current distribution to focus the magnetic field onto the second coil and enhance the coupling between the first coil and the second coil, said field focusing element providing negative permeability at near resonant frequency. a first coil coupled to a power source and configured to produce a magnetic field; a second coil configured to receive power from the first coil via the magnetic field; and characterised by: a field focusing element configured as an Omega structure and disposed between the first coil and the second coil and configured as a self resonant coil having a standing wave current distribution to focus the magnetic field onto the second coil and enhance the coupling between the first coil and the second coil, said field focusing element providing negative permeability at near resonant frequency. a field focusing element configured as an Omega structure and disposed between the first coil and the second coil and configured as a self resonant coil having a standing wave current distribution to focus the magnetic field onto the second coil and enhance the coupling between the first coil and the second coil, said field focusing element providing negative permeability at near resonant frequency.
A system for providing coordinated safety interlocking between a plurality of machines, the system comprising: a plurality of machine control units (204, 206) each configured to control at least one of the plurality of machines; and at least one operator control unit (202, 302, 402) configured to define a dynamic cluster including a subset of the plurality of machine control units (204, 206) and to control safety interlocking between each machine control unit in the dynamic cluster; characterized in that the at least one operator control unit (202, 302, 402) is configured to change the dynamic cluster by adding and removing machine control units from the dynamic cluster to control safety interlocking between different subsets of the machine control units at different times, and wherein the at least one operator control unit (202, 302, 402) is configured to define a first dynamic cluster by selecting a first subset of machine control units and a second dynamic cluster by selecting a second subset of machine control units, each subset including multiple machine control units, the first dynamic cluster different than the second dynamic cluster. a plurality of machine control units (204, 206) each configured to control at least one of the plurality of machines; and at least one operator control unit (202, 302, 402) configured to define a dynamic cluster including a subset of the plurality of machine control units (204, 206) and to control safety interlocking between each machine control unit in the dynamic cluster; characterized in that the at least one operator control unit (202, 302, 402) is configured to change the dynamic cluster by adding and removing machine control units from the dynamic cluster to control safety interlocking between different subsets of the machine control units at different times, and wherein the at least one operator control unit (202, 302, 402) is configured to define a first dynamic cluster by selecting a first subset of machine control units and a second dynamic cluster by selecting a second subset of machine control units, each subset including multiple machine control units, the first dynamic cluster different than the second dynamic cluster.
Restraint system for a vehicle seat, comprising a webbing belt element for restraining an occupant of the vehicle seat, further comprising a guide belt element which is guided continuously on a guideway, a holding element being positionally secure connected to a first section of the guide belt element, wherein the webbing belt element is guided passing through a cutout in the holding element, wherein by means of a movement of the self-contained guide belt element on the guideway in a first direction of rotation, the holding element is continuously adjustable within an adjustment section of the guideway from a second maximum position to a first maximum position, wherein the guideway forms a friction section arranged separately from the adjustment section, wherein in the friction section a braking unit for the guide belt element is arranged which comprises a friction wheel unit arranged on a first side of the guide belt element and a brake shoe unit which is arranged on a second side of the guide belt element and which can interact with the friction wheel unit. comprising a webbing belt element for restraining an occupant of the vehicle seat, further comprising a guide belt element which is guided continuously on a guideway, a holding element being positionally secure connected to a first section of the guide belt element, wherein the webbing belt element is guided passing through a cutout in the holding element, wherein by means of a movement of the self-contained guide belt element on the guideway in a first direction of rotation, the holding element is continuously adjustable within an adjustment section of the guideway from a second maximum position to a first maximum position, wherein the guideway forms a friction section arranged separately from the adjustment section, wherein in the friction section a braking unit for the guide belt element is arranged which comprises a friction wheel unit arranged on a first side of the guide belt element and a brake shoe unit which is arranged on a second side of the guide belt element and which can interact with the friction wheel unit.
Method for manufacturing granulates, wherein the granulates can be used as a sinter raw mixture in the form of a layer in a sinter plant, wherein the manufacture of the granulates comprises method steps as follows: - in a first method step, intensively mixing raw materials, in particular iron ore, fine iron ore concentrates, coke breeze, limestone and if applicable admixtures, in particular sinter returns, binding agents, dust, residual steelworking materials, while adding water, to produce a mixture in an intensive mixer, - in a second method step, introducing the mixture and if applicable admixtures into a granulator and granulating the mixture and if applicable the admixtures, while adding water, to produce raw granulates, - in a third method step, introducing the raw granulates, water, and if applicable admixtures and/or coke fines, into a rolling drum and rolling the raw granulates - and if applicable coating the raw granulates with calcium oxide and/or calcium hydroxide and/or the coke fines - to produce the granulates. - in a first method step, intensively mixing raw materials, in particular iron ore, fine iron ore concentrates, coke breeze, limestone and if applicable admixtures, in particular sinter returns, binding agents, dust, residual steelworking materials, while adding water, to produce a mixture in an intensive mixer, - in a second method step, introducing the mixture and if applicable admixtures into a granulator and granulating the mixture and if applicable the admixtures, while adding water, to produce raw granulates, - in a third method step, introducing the raw granulates, water, and if applicable admixtures and/or coke fines, into a rolling drum and rolling the raw granulates - and if applicable coating the raw granulates with calcium oxide and/or calcium hydroxide and/or the coke fines - to produce the granulates.
A passive sample freezing device (100, 200, 500) comprising: a base container (120, 230, 130, 535) having a top end, a bottom end, and a lower chamber extending therebetween, the top end having an opening and the bottom end having an inlet port; a cover having a top end, a bottom end, and an upper chamber extending therebetween, the top end having an outlet port and the bottom end having an opening, the bottom end being configured to interconnect with the top end of the base container (120, 230, 130, 535) the passive sample freezing device further comprises a removable sample rack (130, 220, 330, 520) disposed between the base and the cover, the removable sample rack comprising: a top surface; a bottom surface; characterized in that the removable sample rack further comprises: a plurality of baffle extensions comprising a webbing of the removable sample rack, which provides the removable sample rack with a circumferential perimeter that compatibly seats within the base container, wherein the plurality of baffle extensions form a seal between the removable sample rack and the base container; and a radial array of sample bays. a base container (120, 230, 130, 535) having a top end, a bottom end, and a lower chamber extending therebetween, the top end having an opening and the bottom end having an inlet port; a cover having a top end, a bottom end, and an upper chamber extending therebetween, the top end having an outlet port and the bottom end having an opening, the bottom end being configured to interconnect with the top end of the base container (120, 230, 130, 535) the passive sample freezing device further comprises a removable sample rack (130, 220, 330, 520) disposed between the base and the cover, the removable sample rack comprising: a top surface; a bottom surface; a top surface; a bottom surface; a plurality of baffle extensions comprising a webbing of the removable sample rack, which provides the removable sample rack with a circumferential perimeter that compatibly seats within the base container, wherein the plurality of baffle extensions form a seal between the removable sample rack and the base container; and a radial array of sample bays.
A method for operating a video surveillance system able to monitor a set of surveillance zones by a set of cameras, comprising the following steps in an application server in a telecommunication network able to communicate with the video surveillance system: for each mobile terminal that has established an emergency call with an emergency call center and whose user is witness of an incident, retrieving localization data (LocD) associated with the mobile terminal, determining if the mobile terminal is located in a surveillance zone, using the retrieved localization data (LocD), receiving a message (Mes) sent from the mobile terminal, the message (Mes) containing current localization data (LocDc) of the mobile terminal and a direction from the mobile terminal towards the incident, if at least two mobile terminals are located in a same surveillance zone, computing coordinates (Cdl) of the incident, taking into account said current localization data (LocDc) and said directions provided by said at least two mobile terminals, and sending an incident message (Mesl) containing the coordinates (Cdl) of the incident to the video surveillance system that is able to select at least one camera using the coordinates (Cdl) of the incident. for each mobile terminal that has established an emergency call with an emergency call center and whose user is witness of an incident, retrieving localization data (LocD) associated with the mobile terminal, determining if the mobile terminal is located in a surveillance zone, using the retrieved localization data (LocD), receiving a message (Mes) sent from the mobile terminal, the message (Mes) containing current localization data (LocDc) of the mobile terminal and a direction from the mobile terminal towards the incident, if at least two mobile terminals are located in a same surveillance zone, computing coordinates (Cdl) of the incident, taking into account said current localization data (LocDc) and said directions provided by said at least two mobile terminals, and sending an incident message (Mesl) containing the coordinates (Cdl) of the incident to the video surveillance system that is able to select at least one camera using the coordinates (Cdl) of the incident.
A laundry dryer, in particular a washer-dryer, comprising - a cabinet, - a drum rotatably placed within the cabinet having an opening on a front side for loading laundry, - a heat pump with a condenser and an evaporator, - an air circulating system connecting the drum to the condenser and the evaporator, wherein said air circulating system comprises a ventilator configured to circulate air in the air circulating system between the drum and the evaporator and the condenser, - a control unit, - at least part of the condenser and of the evaporator are arranged at a back side of the drum, wherein said back side faces away from the opening, wherein the condenser and the evaporator each comprise, in particular vertically aligned, plates (201, 202) for exchanging heat between fluid ducts of the heat pump and process air of the air circulating system, characterized in that a shortest distance between the individual plates of the condenser is larger than a shortest distance between the individual plates of the evaporator. - a cabinet, - a drum rotatably placed within the cabinet having an opening on a front side for loading laundry, - a heat pump with a condenser and an evaporator, - an air circulating system connecting the drum to the condenser and the evaporator, wherein said air circulating system comprises a ventilator configured to circulate air in the air circulating system between the drum and the evaporator and the condenser, - a control unit, - at least part of the condenser and of the evaporator are arranged at a back side of the drum, wherein said back side faces away from the opening, wherein the condenser and the evaporator each comprise, in particular vertically aligned, plates (201, 202) for exchanging heat between fluid ducts of the heat pump and process air of the air circulating system, characterized in that a shortest distance between the individual plates of the condenser is larger than a shortest distance between the individual plates of the evaporator.
An apparatus comprising: a port to couple to another device over a serial point-to-point link, wherein the port comprises: a replay buffer; and protocol circuitry adapted to: receive a flit in a sequence of flits to be sent on a point-to-point link; determine an error in the flit; store a copy of the flit in a first position within the replay buffer based on the error; characterized in that the protocol circuitry is further adapted to: receive a next flit in the sequence of flits; store a copy of the next flit in a second position within the replay buffer based on the error in the flit; and cause the copies of the flit and the next flit to be written to a register for access by software. a replay buffer; and protocol circuitry adapted to: receive a flit in a sequence of flits to be sent on a point-to-point link; determine an error in the flit; store a copy of the flit in a first position within the replay buffer based on the error; characterized in that the protocol circuitry is further adapted to: receive a next flit in the sequence of flits; store a copy of the next flit in a second position within the replay buffer based on the error in the flit; and cause the copies of the flit and the next flit to be written to a register for access by software. receive a flit in a sequence of flits to be sent on a point-to-point link; determine an error in the flit; store a copy of the flit in a first position within the replay buffer based on the error; characterized in that the protocol circuitry is further adapted to: receive a next flit in the sequence of flits; store a copy of the next flit in a second position within the replay buffer based on the error in the flit; and cause the copies of the flit and the next flit to be written to a register for access by software.
A telecommunications panel comprising: a chassis having a rear side extending between first and second sides (10c, 10d) to define an open front side; and a plurality of multi-positionable tray assemblies mounted within the chassis, each of the plurality of multi-positionable tray assemblies including: a tray configured to support at least one cable management structure including at least one removable splice tray, the tray being rotatable about a pivot joint at a pivot axis between a folded position and an access position; a cable routing pathway extending from an opening in the chassis second side, between the chassis rear side and a rear side of the tray, between the chassis first side and a first side of the tray towards a front of the tray, and into an interior of the tray at a location proximate the pivot axis. a chassis having a rear side extending between first and second sides (10c, 10d) to define an open front side; and a plurality of multi-positionable tray assemblies mounted within the chassis, each of the plurality of multi-positionable tray assemblies including: a tray configured to support at least one cable management structure including at least one removable splice tray, the tray being rotatable about a pivot joint at a pivot axis between a folded position and an access position; a cable routing pathway extending from an opening in the chassis second side, between the chassis rear side and a rear side of the tray, between the chassis first side and a first side of the tray towards a front of the tray, and into an interior of the tray at a location proximate the pivot axis. a tray configured to support at least one cable management structure including at least one removable splice tray, the tray being rotatable about a pivot joint at a pivot axis between a folded position and an access position; a cable routing pathway extending from an opening in the chassis second side, between the chassis rear side and a rear side of the tray, between the chassis first side and a first side of the tray towards a front of the tray, and into an interior of the tray at a location proximate the pivot axis.