mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a vehicle with an engine control plan , wherein the vehicle comprises a drive unit , preferably an internal combustion engine , a drive train which is in operative connection therewith, wherein the drive train comprises a plurality of power consuming devices and vehicle axes carrying one or more running wheels , and at least one controlling and regulating device , and the controlling and regulating device is provided with a control means which can be actuated in order to supply an activation request to an electronic controlling and regulating device , characterized in that characteristic curves for estimating an energy requirement for one or more power consuming devices as a function of one or more operational parameters of the respective power consuming device are stored in the controlling and regulating device , and after activation of a connection of at least one power consuming device , prior to the connection of the at least one power consuming device , the controlling and regulating device autonomously selects an output value P for the drive unit from the stored characteristic curves in order to estimate the energy requirement for the at least one power consuming device , and prior to the connection of an energy consuming assembly, and the controlling and regulating device directs the drive unit into an output range which not only prevents the engine speed from dropping, but which also has an energy efficient operating point, and in that after connection of the at least one power consuming device , the output value P is adjusted.
Absorption and disinfection element , usable in a mattress for the prevention and treatment of bedsores, comprising an absorption compartment comprising an absorbent composition and a disinfection compartment, comprising a disinfecting composition , characterized in that it comprises a water-soluble film separating said absorption compartment from said disinfection compartment .
A dentifrice comprising zinc phosphate in the form of Zn 3 (PO 4 ) 2 , wherein the zinc phosphate is added to the dentifrice as a preformed salt, wherein the zinc phosphate is present in an amount of 1 to 3% and wherein the dentifrice further comprises an effective amount of a fluoride ion source, wherein the pH of the composition is basic.
An implantable system comprising: - a first spacer ; - a second spacer ; and - a plate system configured to engage the first spacer and the second spacer , wherein the plate system comprises: - a base plate having an upper surface and a lower surface configured to contact vertebrae, the base plate comprising an upper portion , a mid portion and a lower portion ; - a first bridge positioned between the upper portion and the mid portion ; - a second bridge positioned between the mid portion and the lower portion ; - a first retainer plate in engagement with the first bridge , wherein the first retainer plate is positioned over the first bridge and in contact with the upper surface of the base plate ; and - a second retainer plate in engagement with the second bridge , wherein the second retainer plate is positioned over the second bridge and in contact with the upper surface of the base plate , - wherein the first retainer plate is configured to receive a first pair of fasteners for extending into the first spacer ; - wherein the second retainer plate is configured to receive a second pair of fasteners for extending into the second spacer . - a first spacer ; - a second spacer ; and - a plate system configured to engage the first spacer and the second spacer , wherein the plate system comprises: - a base plate having an upper surface and a lower surface configured to contact vertebrae, the base plate comprising an upper portion , a mid portion and a lower portion ; - a first bridge positioned between the upper portion and the mid portion ; - a second bridge positioned between the mid portion and the lower portion ; - a first retainer plate in engagement with the first bridge , wherein the first retainer plate is positioned over the first bridge and in contact with the upper surface of the base plate ; and - a second retainer plate in engagement with the second bridge , wherein the second retainer plate is positioned over the second bridge and in contact with the upper surface of the base plate , - wherein the first retainer plate is configured to receive a first pair of fasteners for extending into the first spacer ; - wherein the second retainer plate is configured to receive a second pair of fasteners for extending into the second spacer .
A damper pin for damping adjacent turbine blades coupled to a rotor shaft , the damper pin comprising: an elongated body having a center portion disposed between a first end portion and a second end portion , the first end portion, center portion and second end portion defining a generally arcuate top portion of the elongated body configured to contact with a groove defined between the adjacent turbine blades , wherein the elongated body includes a first side portion laterally opposed to a second side portion ; wherein the elongated body defines a plurality of laterally extending slots axially spaced along the center portion , the plurality of slots comprising a first set of slots and a second set of slots , each slot of the first set of slots extending from the first side portion , through a centerline of the elongated body and into the second side portion , each slot of the first set of slots terminating at a point or position that is past the centerline , each slot of the second set of slots extending from the second side portion through the centerline, and into the first side portion , each slot of the second set of slots terminating at a point or position that is past the centerline , characterized in that each slot of the first set of slots does not extend entirely through the second side portion, and that each slot of the second set of slots does not extend entirely through the first side portion. an elongated body having a center portion disposed between a first end portion and a second end portion , the first end portion, center portion and second end portion defining a generally arcuate top portion of the elongated body configured to contact with a groove defined between the adjacent turbine blades , wherein the elongated body includes a first side portion laterally opposed to a second side portion ; wherein the elongated body defines a plurality of laterally extending slots axially spaced along the center portion , the plurality of slots comprising a first set of slots and a second set of slots , each slot of the first set of slots extending from the first side portion , through a centerline of the elongated body and into the second side portion , each slot of the first set of slots terminating at a point or position that is past the centerline , each slot of the second set of slots extending from the second side portion through the centerline, and into the first side portion , each slot of the second set of slots terminating at a point or position that is past the centerline , characterized in that each slot of the first set of slots does not extend entirely through the second side portion, and that each slot of the second set of slots does not extend entirely through the first side portion.
A method for filling at least one shut down refrigeration circuit with a refrigerant mixture comprising at least one first refrigerant fluid and at least one inorganic refrigerant fluid , the first refrigerant fluid comprising at least one fluorinated hydrocarbon derivative , characterized in that it comprises the following steps: - in situ preparation of the refrigerant mixture in a mixing device , by providing the first refrigerant fluid in liquid phase, and adding the inorganic refrigerant fluid to the first refrigerant fluid , so as to obtain a homogenous refrigerant mixture, and - filling the refrigeration circuit by injecting the refrigerant mixture prepared in the mixing device , the step of preparation comprising a step for recirculating the refrigerant mixture during which the pressure and the temperature of said refrigerant mixture are regulated. - in situ preparation of the refrigerant mixture in a mixing device , by providing the first refrigerant fluid in liquid phase, and adding the inorganic refrigerant fluid to the first refrigerant fluid , so as to obtain a homogenous refrigerant mixture, and - filling the refrigeration circuit by injecting the refrigerant mixture prepared in the mixing device ,
A drug delivery device, comprising: - a body , - an outer surface of the body , and - a recess in the outer surface, the recess being provided for the display of a piece of information, wherein - the recess is provided with a structure in relief , wherein - the recess has a surface on a level that is inferior with respect to the level of the outer surface of the body outside the recess , and - wherein the drug delivery device further comprises a mechanism , which is provided for the operation of the device, the mechanism being located in an inner volume of the body on a side of the body that is opposite to the outer surface , an operation button , which is provided for the operation of the device, wherein the mechanism being operable by pressing or rotating the operation button , wherein the recess being located in the vicinity of the operation button , characterized in that the structure in relief is formed directly in the surface of the recess so that it forms an integral part of the body , and a transparent cover covers the recess at the level of the outer surface of the body as present outside the recess . - a body , - an outer surface of the body , and - a recess in the outer surface, the recess being provided for the display of a piece of information, wherein - the recess is provided with a structure in relief , - the recess has a surface on a level that is inferior with respect to the level of the outer surface of the body outside the recess , and - wherein the drug delivery device further comprises a mechanism , which is provided for the operation of the device, the mechanism being located in an inner volume of the body on a side of the body that is opposite to the outer surface , an operation button , which is provided for the operation of the device, wherein the mechanism being operable by pressing or rotating the operation button , wherein the recess being located in the vicinity of the operation button ,
An in-vehicle computing system (609; 700) of a vehicle (104b; 602; 701), the in-vehicle computing system (609; 700) comprising: a display device; a sensor subsystem in communication with an optical sensor; a processor (714; 720); and memory storing instructions executable by the processor (714; 720) to: form a group with at least one other vehicle ; instruct the optical sensor to scan an assigned region around the vehicle , each vehicle of the group being assigned, from a master vehicle of the group or a remote device, a different region of a collaborative scanning area, wherein two or more of the plurality of assigned regions at least partially overlap; receive, from the optical sensor, locally scanned data corresponding to the assigned region ; process the locally scanned data to build a first portion of a three-dimensional map of an environment of the vehicle; transmit the processed scanned data to at least one other vehicle ; receive additional map data from the at least one other vehicle ; build a second, different portion of the three-dimensional map using the received additional map data; and display the three-dimensional map via the display device, the three-dimensional map corresponding to the collaborative scanning area . a display device; a sensor subsystem in communication with an optical sensor; a processor (714; 720); and memory storing instructions executable by the processor (714; 720) to: form a group with at least one other vehicle ; instruct the optical sensor to scan an assigned region around the vehicle , each vehicle of the group being assigned, from a master vehicle of the group or a remote device, a different region of a collaborative scanning area, wherein two or more of the plurality of assigned regions at least partially overlap; receive, from the optical sensor, locally scanned data corresponding to the assigned region ; process the locally scanned data to build a first portion of a three-dimensional map of an environment of the vehicle; transmit the processed scanned data to at least one other vehicle ; receive additional map data from the at least one other vehicle ; build a second, different portion of the three-dimensional map using the received additional map data; and display the three-dimensional map via the display device, the three-dimensional map corresponding to the collaborative scanning area . receive, from the optical sensor, locally scanned data corresponding to the assigned region ; process the locally scanned data to build a first portion of a three-dimensional map of an environment of the vehicle; transmit the processed scanned data to at least one other vehicle ; receive additional map data from the at least one other vehicle ; build a second, different portion of the three-dimensional map using the received additional map data; and display the three-dimensional map via the display device, the three-dimensional map corresponding to the collaborative scanning area .
A semiconductor device comprising: a plurality of series-coupled battery cells ; a low-voltage circuit that includes a measurement circuit , the measurement circuit individually measuring the voltages of the battery cells; and a high-voltage resistant circuit that includes a first multiplexer , a second multiplexer and a third multiplexer , the first multiplexer selecting one of the battery cells for coupling to the low-voltage circuit via a plus power supply line (LVDD), the second multiplexer selecting one of the battery cells for coupling to the low-voltage circuit via a minus power supply line (LVSS), and the third multiplexer selecting one of the battery cells for coupling to the measurement circuit ; wherein a first capacitor stores electrical charges of a battery cell, which has the highest voltage among the battery cells, and transfers a part of the electrical charges to a second capacitor and a remaining part of the electrical charges to a battery cell, which has the lowest voltage among the battery cells, and wherein the second capacitor supplies the part of the electrical charges to the low-voltage circuit via the plus power supply line (LVDD). a plurality of series-coupled battery cells ; a low-voltage circuit that includes a measurement circuit , the measurement circuit individually measuring the voltages of the battery cells; and a high-voltage resistant circuit that includes a first multiplexer , a second multiplexer and a third multiplexer , the first multiplexer selecting one of the battery cells for coupling to the low-voltage circuit via a plus power supply line (LVDD), the second multiplexer selecting one of the battery cells for coupling to the low-voltage circuit via a minus power supply line (LVSS), and the third multiplexer selecting one of the battery cells for coupling to the measurement circuit ; wherein a first capacitor stores electrical charges of a battery cell, which has the highest voltage among the battery cells, and transfers a part of the electrical charges to a second capacitor and a remaining part of the electrical charges to a battery cell, which has the lowest voltage among the battery cells, and wherein the second capacitor supplies the part of the electrical charges to the low-voltage circuit via the plus power supply line (LVDD).
A shaped catalyst body for producing ethylene oxide by gas-phase oxidation of ethylene, comprising silver deposited on a porous refractory support, the shaped catalyst body having a first face side surface, a second face side surface and a circumferential surface, characterized by - a content of at least 20 wt.-% of silver, relative to the total weight of the shaped catalyst body; - a multilobe structure; - a plurality of passageways extending from the first face side surface to the second face side surface, outer passageways being arranged around a central passageway with one outer passageway being assigned to each lobe, wherein neighboring outer passageways are arranged essentially equidistantly to each other and the outer passageways are arranged essentially equidistantly to the central passageway; - a minimum wall thickness A between two neighboring passageways in the range of 0.6 to 1.3 mm; - a minimum wall thickness B between each outer passageway and the circumferential surface in the range of 1.1 to 1.8 mm; and - a BET surface area in the range of 1.6 to 3.0 m 2 /g. - a content of at least 20 wt.-% of silver, relative to the total weight of the shaped catalyst body; - a multilobe structure; - a plurality of passageways extending from the first face side surface to the second face side surface, outer passageways being arranged around a central passageway with one outer passageway being assigned to each lobe, wherein neighboring outer passageways are arranged essentially equidistantly to each other and the outer passageways are arranged essentially equidistantly to the central passageway; - a minimum wall thickness A between two neighboring passageways in the range of 0.6 to 1.3 mm; - a minimum wall thickness B between each outer passageway and the circumferential surface in the range of 1.1 to 1.8 mm; and - a BET surface area in the range of 1.6 to 3.0 m 2 /g.
Device for housing in a vibration-proof manner an electronic component , the device comprising a fiber-reinforced, injection-molded carrier element which comprises a cavity for receiving the electronic component , the electronic component which is arranged in the cavity, a damping layer which is applied directly on the carrier element and which is arranged at least in portions between the electronic component and the carrier element , wherein the damping layer comprises a material made of a thermoplastic elastomer and a thickness between the electronic component and the carrier element of at least 100 μm, a filling mass which adheres to the damping layer and the electronic component , and which is arranged between the electronic component and the carrier element , an electric conductor which is coupled with the electronic component and the carrier element , and which is at least in portions surrounded by the damping layer . a fiber-reinforced, injection-molded carrier element which comprises a cavity for receiving the electronic component , the electronic component which is arranged in the cavity, a damping layer which is applied directly on the carrier element and which is arranged at least in portions between the electronic component and the carrier element , wherein the damping layer comprises a material made of a thermoplastic elastomer and a thickness between the electronic component and the carrier element of at least 100 μm, a filling mass which adheres to the damping layer and the electronic component , and which is arranged between the electronic component and the carrier element , an electric conductor which is coupled with the electronic component and the carrier element , and which is at least in portions surrounded by the damping layer .
A fastening device , which is for fastening and loosening a lace , the fastening device comprising: a case , comprising a receiving space and a plurality of side teeth ; a spool disposed within the case , wherein the lace is wound therearound; a locking unit comprising a blocking portion and at least one pawl arm , wherein the at least one pawl arm is engaged with the side teeth and abutted against the blocking portion in a loosening direction (A1), and the at least one pawl arm is disengaged from the side teeth in a tightening direction (A2) opposite to the loosening direction (A1); and a knob coupled to the locking unit ; wherein rotating the knob relative to the case allows the locking unit to be driven to switch from a first position to a second position, the locking unit is coupled to the spool to prohibit the spool from rotating toward the loosening direction (A1) when the locking unit is at the first position, and the spool is allowed to be rotated toward the loosening direction (A1) when the locking unit is at the second position. a case , comprising a receiving space and a plurality of side teeth ; a spool disposed within the case , wherein the lace is wound therearound; a locking unit comprising a blocking portion and at least one pawl arm , wherein the at least one pawl arm is engaged with the side teeth and abutted against the blocking portion in a loosening direction (A1), and the at least one pawl arm is disengaged from the side teeth in a tightening direction (A2) opposite to the loosening direction (A1); and a knob coupled to the locking unit ; wherein rotating the knob relative to the case allows the locking unit to be driven to switch from a first position to a second position, the locking unit is coupled to the spool to prohibit the spool from rotating toward the loosening direction (A1) when the locking unit is at the first position, and the spool is allowed to be rotated toward the loosening direction (A1) when the locking unit is at the second position.
A self-oscillating amplifier system having an input for receiving an input signal and an output , said system comprising: a pulse modulator configured to modulate the input signal and form a pulse modulated signal, a switching power amplification stage configured to receive the pulse modulated signal, amplify the pulse modulated signal, and form a switching output signal, a demodulation filter configured to demodulated the switching output signal and form a demodulated signal at the output, a feedback path from the output , said feedback path comprising a phase lead network for compensating at least a portion of a phase lag of the demodulation filter; a summing box , connected to the input signal and to the feedback path, and configured to subtract a feedback path signal from the input signal; and a first forward branch connected between the summing box and the pulse modulator, the first forward branch comprising a differentiating forward filter for controlling a switching frequency; and a second forward branch connected in parallel with the first forward branch, said second forward branch comprising an integrating forward filter, configured to form an integrated signal, wherein the second forward branch further comprises an amplitude limiting circuitry (13a; 13b) configured to limit the amplitude of the integrated signal. a pulse modulator configured to modulate the input signal and form a pulse modulated signal, a switching power amplification stage configured to receive the pulse modulated signal, amplify the pulse modulated signal, and form a switching output signal, a demodulation filter configured to demodulated the switching output signal and form a demodulated signal at the output, a feedback path from the output , said feedback path comprising a phase lead network for compensating at least a portion of a phase lag of the demodulation filter; a summing box , connected to the input signal and to the feedback path, and configured to subtract a feedback path signal from the input signal; and a first forward branch connected between the summing box and the pulse modulator, the first forward branch comprising a differentiating forward filter for controlling a switching frequency; and a second forward branch connected in parallel with the first forward branch, said second forward branch comprising an integrating forward filter, configured to form an integrated signal, wherein the second forward branch further comprises an amplitude limiting circuitry (13a; 13b) configured to limit the amplitude of the integrated signal.