mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting a volume level of a first and a second speaker, the first and second speakers having a non-standardized relationship between logical volume level that is input to the speaker and sound pressure level that is produced by the speaker, the method comprising: receiving, via a user interface, a selected volume level; converting the selected volume level to a sound pressure level; accessing a stored lookup table to convert the sound pressure level to a first product-specific logical volume level for the first speaker, the relationship between logical volume level and sound pressure level for the first speaker being independent of audio content sent to the first speaker, the stored lookup table tabulating non-standardized relationships between logical volume level and sound pressure level for a plurality of product-specific speakers including the first speaker; transmitting data corresponding to the first product-specific logical volume level to the first speaker; accessing the stored lookup table to convert the sound pressure level to a second product-specific logical volume level for the second speaker of the plurality of product-specific speakers, the stored lookup table tabulating the non-standardized relationship between logical volume level and sound pressure level for the second speaker, the first and second speakers being different products; and transmitting data corresponding to the second product-specific logical volume level to the second speaker; wherein the receiving, the accessing, and the transmitting are initiated by a software application stored locally on a user device. receiving, via a user interface, a selected volume level; converting the selected volume level to a sound pressure level; accessing a stored lookup table to convert the sound pressure level to a first product-specific logical volume level for the first speaker, the relationship between logical volume level and sound pressure level for the first speaker being independent of audio content sent to the first speaker, the stored lookup table tabulating non-standardized relationships between logical volume level and sound pressure level for a plurality of product-specific speakers including the first speaker; transmitting data corresponding to the first product-specific logical volume level to the first speaker; accessing the stored lookup table to convert the sound pressure level to a second product-specific logical volume level for the second speaker of the plurality of product-specific speakers, the stored lookup table tabulating the non-standardized relationship between logical volume level and sound pressure level for the second speaker, the first and second speakers being different products; and transmitting data corresponding to the second product-specific logical volume level to the second speaker; wherein the receiving, the accessing, and the transmitting are initiated by a software application stored locally on a user device.
A brake arrangement for an electric motor, wherein the brake arrangement has - a brake lining carrier - a driver and - a shaft, characterised in that the driver has an inner and an outer driver part (41, 43) connected to one another by means of an intermediate layer, wherein the brake lining carrier has inner toothing engaged with outer toothing of the outer driver part, so that the brake lining carrier is connected to the driver in a rotationally-fixed yet axially displaceable manner, wherein the inner driver part is connected to the shaft in a rotationally-fixed manner. wherein the brake arrangement has - a brake lining carrier - a driver and - a shaft, - a brake lining carrier - a driver and - a shaft, characterised in that the driver has an inner and an outer driver part (41, 43) connected to one another by means of an intermediate layer, wherein the brake lining carrier has inner toothing engaged with outer toothing of the outer driver part, so that the brake lining carrier is connected to the driver in a rotationally-fixed yet axially displaceable manner, wherein the inner driver part is connected to the shaft in a rotationally-fixed manner.
A multi-pack container which defines a series of containers formed in a PET plastic sheet, and wherein said containers are joined by bridges formed by the PET sheet with a predetermined thickness (e), defined on the plastic sheet itself; said bridges comprising an upper pre-cut line and a lower pre-cut line for the breaking of the bridge and the separation of the containers; wherein the upper pre-cut line and the lower pre-cut line are vertically separated by a second distance characterised in that the vertical separation of the upper and lower pre-cut lines (12, 13) is comprised between 12% and 26% of the thickness (e) of the bridge, and the pre-cut lines (12, 13) are arranged parallel, laterally separated, in a horizontal direction, at a first distance comprised between 45% and 55% of the thickness (e) of the bridge.
An optical tracking system, comprising; a movable tracked object comprising a plurality of rigidly attached optical sensors (1030a, 1030b, 1030c); and a base station comprising one or more optical transmitters (910, 1130), wherein each transmitter comprises a horizontal and a vertical rotor (920, 930, 1120, 1130) that sweep two optical beams across a tracking volume on orthogonal axes during repeating sweep cycles, wherein each transmitter (910, 1130) emits an omni-directional synchronization optical pulse detectable by said plurality of optical sensors at the beginning of each said sweep cycle; and wherein each of said optical sensors (1030a, 1030b, 1030c) computes an angular location within said tracking volume by calculating the elapsed time between detecting said synchronization pulse and detecting said optical beams. a movable tracked object comprising a plurality of rigidly attached optical sensors (1030a, 1030b, 1030c); and a base station comprising one or more optical transmitters (910, 1130), wherein each transmitter comprises a horizontal and a vertical rotor (920, 930, 1120, 1130) that sweep two optical beams across a tracking volume on orthogonal axes during repeating sweep cycles, wherein each transmitter (910, 1130) emits an omni-directional synchronization optical pulse detectable by said plurality of optical sensors at the beginning of each said sweep cycle; and wherein each of said optical sensors (1030a, 1030b, 1030c) computes an angular location within said tracking volume by calculating the elapsed time between detecting said synchronization pulse and detecting said optical beams. wherein each transmitter comprises a horizontal and a vertical rotor (920, 930, 1120, 1130) that sweep two optical beams across a tracking volume on orthogonal axes during repeating sweep cycles, wherein each transmitter (910, 1130) emits an omni-directional synchronization optical pulse detectable by said plurality of optical sensors at the beginning of each said sweep cycle; and wherein each of said optical sensors (1030a, 1030b, 1030c) computes an angular location within said tracking volume by calculating the elapsed time between detecting said synchronization pulse and detecting said optical beams.
A vacuum filling machine for packing a finely divided particulate material into a bulk bag having a filing spout, the machine comprising: a vacuum chamber formed from a first portion and a second portion connected to and moveable relative to one another, wherein said first portion forms three sidewalls and said second portion forms a distal sidewall of said vacuum chamber, and wherein the second portion is shaped so as to mate with the first portion to fully enclose the vacuum chamber; a vacuum source for drawing a vacuum within the vacuum chamber; a support framework at least partially within the second portion, including at least two attachment means for supporting hanging loops of the bulk bag; an opening in the second portion of the vacuum chamber for receiving the filling spout of the bulk bag; a bag filling head in fluid communication with a material supply line for providing the particulate material, the bag filling head configured to cover and seal the opening; characterized in that the second portion is in the shape of a wedge and includes the distal sidewall, a bottom portion, and a wedge-shaped top wall including the opening, the opening being surrounded by a collar to which the opening bulk bag may be securely mounted, and at least one open side when extended away from the first portion to facilitate removal of the bulk bag. a vacuum chamber formed from a first portion and a second portion connected to and moveable relative to one another, wherein said first portion forms three sidewalls and said second portion forms a distal sidewall of said vacuum chamber, and wherein the second portion is shaped so as to mate with the first portion to fully enclose the vacuum chamber; a vacuum source for drawing a vacuum within the vacuum chamber; a support framework at least partially within the second portion, including at least two attachment means for supporting hanging loops of the bulk bag; an opening in the second portion of the vacuum chamber for receiving the filling spout of the bulk bag; a bag filling head in fluid communication with a material supply line for providing the particulate material, the bag filling head configured to cover and seal the opening; characterized in that the second portion is in the shape of a wedge and includes the distal sidewall, a bottom portion, and a wedge-shaped top wall including the opening, the opening being surrounded by a collar to which the opening bulk bag may be securely mounted, and at least one open side when extended away from the first portion to facilitate removal of the bulk bag.
A display device for use in a vehicle and configured to perform communication with at least one processor provided in the vehicle, the display device comprising: a first display configured to output first light forming first visual information; a supporting unit configured to support a mobile terminal having a second display; and at least one light synthesizing unit configured to transmit either one of the first light output from the first display and second light output from the second display and to reflect another light of the first light output from the first display and the second light output from the second display, wherein the supporting unit is spaced apart from the first display with the light synthesizing unit interposed therebetween, and configured to support the mobile terminal so that the second light is directed to the light synthesizing unit. a first display configured to output first light forming first visual information; a supporting unit configured to support a mobile terminal having a second display; and at least one light synthesizing unit configured to transmit either one of the first light output from the first display and second light output from the second display and to reflect another light of the first light output from the first display and the second light output from the second display, wherein the supporting unit is spaced apart from the first display with the light synthesizing unit interposed therebetween, and configured to support the mobile terminal so that the second light is directed to the light synthesizing unit.
An air conditioning system including a heat source apparatus, a pump, a plurality of load apparatuses (101-1, 101-n) and a trunk pipe (11, 21) for supply of the heating medium from the heat source apparatus to the load apparatuses (101-1, 101-n), each load apparatus (101-1, 101-n) for being arranged in one out of a plurality of rooms (R1-Rn), respectively, and comprising an indoor heat exchanger connected to the heat source apparatus and a temperature adjustment apparatus configured to adjust a temperature of a heating medium that can exchange heat with air in the indoor heat exchanger;, wherein each temperature adjustment apparatus (101-1, 101-n) comprises: a first pipe through which the heating medium can flow; a second pipe through which the heating medium can flow, the second pipe being branched into a first branch pipe (32, 33) and a second branch pipe, the first branch pipe (32, 33) and the second branch pipe being thereafter merged again; a second heat exchanger in which heat is exchanged between the heating medium that can flow through the first branch pipe (32, 33) and the heating medium that can flow through the first pipe; and a flow rate regulator configured to change a flow rate of the heating medium that can flow through the first branch pipe (32, 33) and a flow rate of the heating medium that can flow through the second branch pipe, one of the first pipe and the second pipe being a pipe configured to supply the heating medium from the heat source apparatus to the indoor heat exchanger and the other of the first pipe and the second pipe being a pipe configured to return the heating medium from the indoor heat exchanger to the heat source apparatus. a first pipe through which the heating medium can flow; a second pipe through which the heating medium can flow, the second pipe being branched into a first branch pipe (32, 33) and a second branch pipe, the first branch pipe (32, 33) and the second branch pipe being thereafter merged again; a second heat exchanger in which heat is exchanged between the heating medium that can flow through the first branch pipe (32, 33) and the heating medium that can flow through the first pipe; and a flow rate regulator configured to change a flow rate of the heating medium that can flow through the first branch pipe (32, 33) and a flow rate of the heating medium that can flow through the second branch pipe, one of the first pipe and the second pipe being a pipe configured to supply the heating medium from the heat source apparatus to the indoor heat exchanger and the other of the first pipe and the second pipe being a pipe configured to return the heating medium from the indoor heat exchanger to the heat source apparatus.
Antenna for sending and/or receiving radio-frequency signals, wherein the antenna furthermore has an earth connection, a two-dimensionally arranged spiral coil and a two-dimensional support, wherein a first antenna element section arranged on the two-dimensional support is in two-dimensional form and at least a further antenna element section, likewise arranged on the two-dimensional support, is in meandrous form, wherein the antenna element sections (4, 5) are electrically connected to one another by means of the coil, which is likewise arranged on the support, wherein the two-dimensionally arranged spiral coil is formed by an electrically conductive material printed on the support, wherein the input side of the further antenna element section merges at one end thereof into the spiral coil arranged two-dimensionally on the support, and wherein the input side of the first antenna element section is connected to the spiral coil arranged two-dimensionally on the support by means of an electrical connection and wherein the electrical connection extends from the inside of the coil to the first antenna element section with the interposition of an insulating layer of the antenna or of a printed insulating layer of the antenna and is formed by an electrically conductive material printed on the support.
A method comprising: assigning, by an identifier management system, a hypervisor agnostic identifier to a virtual machine; creating, by the identifier management system, a mapping of the hypervisor agnostic identifier to a first hypervisor specific identifier of the virtual machine, including storing the mapping in a database; updating, by the identifier management system, the mapping of the hypervisor agnostic identifier to a second hypervisor specific identifier in response to a hypervisor conversion in which a hypervisor associated with the virtual machine is converted from a first type to a second type, wherein the first hypervisor specific identifier is associated with the first type and the second hypervisor specific identifier is associated with the second type; and making available, by the identifier management system, the hypervisor agnostic identifier for use by other elements instead of the first hypervisor specific identifier and the second hypervisor specific identifier, wherein the first hypervisor specific identifier and the second hypervisor specific identifier are hypervisor specific; and wherein the hypervisor agnostic identifier is not hypervisor specific. assigning, by an identifier management system, a hypervisor agnostic identifier to a virtual machine; creating, by the identifier management system, a mapping of the hypervisor agnostic identifier to a first hypervisor specific identifier of the virtual machine, including storing the mapping in a database; updating, by the identifier management system, the mapping of the hypervisor agnostic identifier to a second hypervisor specific identifier in response to a hypervisor conversion in which a hypervisor associated with the virtual machine is converted from a first type to a second type, wherein the first hypervisor specific identifier is associated with the first type and the second hypervisor specific identifier is associated with the second type; and making available, by the identifier management system, the hypervisor agnostic identifier for use by other elements instead of the first hypervisor specific identifier and the second hypervisor specific identifier, wherein the first hypervisor specific identifier and the second hypervisor specific identifier are hypervisor specific; and wherein the hypervisor agnostic identifier is not hypervisor specific.
An aqueous plating bath for the electroless deposition of iron boron alloy coatings comprising (i) at least one iron ion source; (ii) at least one boron based reducing agent; (iii) at least one complexing agent; (iv) at least one pH buffer; and (v) at least one base, wherein the pH value of the aqueous plating bath is 11 or higher and the molar ratio of the boron based reducing agents in relation to the iron ions in the aqueous plating bath is in the range of 6:1 to 10:1 and wherein it does not contain any intentionally added further reducible metal ions or it comprises a second source of reducible metal ions in an amount of 0.01 to 10 mol-% based on the amount of iron ions present in the aqueous plating bath. (i) at least one iron ion source; (ii) at least one boron based reducing agent; (iii) at least one complexing agent; (iv) at least one pH buffer; and (v) at least one base,
A method to reduce background noise in an experimental spectrum, the method comprising: (a) contacting a blank sample with electromagnetic radiation, sufficient to obtain a background spectrum; (b) performing an intrinsic dimension analysis on the background spectrum, sufficient to obtain multiple correlations between variables in the background spectrum; (c) identifying and retaining the intrinsic dimensionality of the variables in the background spectrum; (d) contacting an experimental sample with electromagnetic radiation, sufficient to obtain an experimental spectrum; (e) performing a regression analysis on the experimental spectrum, based upon known characteristics of pure substances, effective to provide a simulation spectrum; (f) subtracting at least part of the simulation spectrum from at least part of the experimental spectrum, effective to provide a residual spectrum; (g) projecting at least part of the residual spectrum onto the intrinsic dimensionality of the background spectrum, effective to identify any etalons present in the residual spectrum; (h) removing the etalon from the experimental spectrum, effective to provide an experimental spectrum having reduced background noise. (a) contacting a blank sample with electromagnetic radiation, sufficient to obtain a background spectrum; (b) performing an intrinsic dimension analysis on the background spectrum, sufficient to obtain multiple correlations between variables in the background spectrum; (c) identifying and retaining the intrinsic dimensionality of the variables in the background spectrum; (d) contacting an experimental sample with electromagnetic radiation, sufficient to obtain an experimental spectrum; (e) performing a regression analysis on the experimental spectrum, based upon known characteristics of pure substances, effective to provide a simulation spectrum; (f) subtracting at least part of the simulation spectrum from at least part of the experimental spectrum, effective to provide a residual spectrum; (g) projecting at least part of the residual spectrum onto the intrinsic dimensionality of the background spectrum, effective to identify any etalons present in the residual spectrum; (h) removing the etalon from the experimental spectrum, effective to provide an experimental spectrum having reduced background noise.
Control method for a secondary dust removal installation, in which a pipe duct network connects a suction extractor fan with at least two suction points, wherein the pipe duct network comprises, for each suction point, a controllable exhaust air flap, the flap setting of which influences the volume flow at the suction point, and wherein the control method comprises the following steps: - providing a mathematical system model describing the pipe duct network, wherein each pipe element is characterised by its physical and geometric characteristics; - calculating the pressure losses in the pipe duct network on the basis of the fully defined mathematical system model and the volume flows required at the suction points; - calculating the flap setting for each exhaust air flap and the pressure loss of the overall system, which allow attainment of the required operating volume flows with smallest possible conveying power; - controlling the exhaust air flaps so that the calculated flap settings are guaranteed; and - controlling the suction extractor fan so that the rotational speed thereof is increased until the calculated pressure loss of the overall system is reached and thus the volume flows at the suction points are guaranteed. - providing a mathematical system model describing the pipe duct network, wherein each pipe element is characterised by its physical and geometric characteristics; - calculating the pressure losses in the pipe duct network on the basis of the fully defined mathematical system model and the volume flows required at the suction points; - calculating the flap setting for each exhaust air flap and the pressure loss of the overall system, which allow attainment of the required operating volume flows with smallest possible conveying power; - controlling the exhaust air flaps so that the calculated flap settings are guaranteed; and - controlling the suction extractor fan so that the rotational speed thereof is increased until the calculated pressure loss of the overall system is reached and thus the volume flows at the suction points are guaranteed.