mhurhangee/patent-ind-claim-en huggingface dataset:
Light armature, comprising: - an envelope , defining an interior space; - at least one light source in the interior space; - a controller, arranged in the interior space of the envelope and connected to the at least one light source, wherein the controller is comprised in a removable control module , the interior space of the envelope comprises an accommodation of the control module, and the envelope comprises an access hatch normally closing an access at the accommodation of the control module, wherein the accommodation of the control module and the control module comprise quick couplings for easy removal of the control module from the accommodation of the control module through the access, wherein the quick couplings optionally are electric contacts from a group comprising pin-hole couplings and jack plug couplings, to establish or break electric contact of the controller with a power supply and the light source, as the control module is inserted into, respectively taken from the accommodation, wherein a) an actuator is arranged inside the envelope and the access hatch can be opened using the actuator, and/or b) up- and outwardly extending sloping guide walls are arranged at the accommodation to align the quick couplings. - an envelope , defining an interior space; - at least one light source in the interior space; - a controller, arranged in the interior space of the envelope and connected to the at least one light source, a) an actuator is arranged inside the envelope and the access hatch can be opened using the actuator, and/or b) up- and outwardly extending sloping guide walls are arranged at the accommodation to align the quick couplings.
Cooling system for a motor vehicle provided with electrical propulsion, comprising a central processing unit and a cooling circuit comprising at least one pump for circulating a coolant, a solenoid valve , and a radiator , said circuit being intended to cool a battery charger and an electric motor associated with an electronic control device , characterized in that the computing central processing unit is configured to manage the activation of said at least one pump by integrating the potential failures of each of said pumps , and in that the computing central processing unit is capable, if the cooling circuit is composed of only a single pump, of developing a cooling strategy which will tend to control the failing pump optimally given its reduced operating capabilities or, if the cooling circuit comprises at least two pumps, of applying a weighting coefficient for each of the pumps given their respective failure state.
Saccharide of general formula (I) wherein A is B is C is D is E is F is or T 1 and T 2 represent -H, -L -NH 2 ; wherein if T 1 is -L -NH 2 , then T 2 is -H and if T 1 is -H, then T 2 is -L-NH 2 ; X 1 , X 2 , X 3 , X 4 , X 5 , and X 6 represent -OCH 3 ; n is an integer selected from 1, 2, 3, or 4; n1, n2, n3 and n4 are independently of each other selected from 0 and 1 and n1 +n2+n3+n4 ≥ 1; under the proviso that if n1+n2+n3+n4 = 1 and if n = 1 and if A is than F is and under the proviso that if n1+n2+n3+n4 = 1 and if n = 1 and if F is than A is and L is a linker and L is selected from: -L a -, -L a -L e -, -L a -L b -L e -, -L a -L d -L e -; wherein -L a - is selected from: -(CH 2 ) o -, -(CH 2 -CH 2 -O) o -C 2 H 4 -, -(CH 2 -CH 2 -O) o -CH 2 -; -L b - represents -O-, or -O-P(O)(OH)-O-; -L d - is selected from -(CH 2 ) q -, -(CF 2 ) q -, -(CH 2 -CH 2 -O) q -C 2 H 4 -, and -(CH 2 -CH 2 -O) q -CH 2 -; -L e - is selected from: -(CH 2 ) p1 -, -(CF 2 ) p1 -, -C 2 H 4 -(O-CH 2 -CH 2 ) p1 -, -CH 2 -(O-CH 2 -CH 2 ) p1 - and -(CH 2 ) p1 -O-(CH 2 ) p2 -; and o, q, p1 and p2 are independently of each other an integer selected from 1, 2, 3, 4, 5, and 6; or enantiomers, diastereomers, mixtures of enantiomers, mixtures of diastereomers, anomers, hydrates, solvates of the above mentioned compounds and pharmaceutically acceptable salts thereof. A is B is C is D is E is F is or T 1 and T 2 represent -H, -L -NH 2 ; wherein if T 1 is -L -NH 2 , then T 2 is -H and if T 1 is -H, then T 2 is -L-NH 2 ; X 1 , X 2 , X 3 , X 4 , X 5 , and X 6 represent -OCH 3 ; n is an integer selected from 1, 2, 3, or 4; n1, n2, n3 and n4 are independently of each other selected from 0 and 1 and n1 +n2+n3+n4 ≥ 1; under the proviso that if n1+n2+n3+n4 = 1 and if n = 1 and if A is than F is and under the proviso that if n1+n2+n3+n4 = 1 and if n = 1 and if F is than A is and L is a linker and L is selected from: -L a -, -L a -L e -, -L a -L b -L e -, -L a -L d -L e -; wherein -L a - is selected from: -(CH 2 ) o -, -(CH 2 -CH 2 -O) o -C 2 H 4 -, -(CH 2 -CH 2 -O) o -CH 2 -; -L b - represents -O-, or -O-P(O)(OH)-O-; -L d - is selected from -(CH 2 ) q -, -(CF 2 ) q -, -(CH 2 -CH 2 -O) q -C 2 H 4 -, and -(CH 2 -CH 2 -O) q -CH 2 -; -L e - is selected from: -(CH 2 ) p1 -, -(CF 2 ) p1 -, -C 2 H 4 -(O-CH 2 -CH 2 ) p1 -, -CH 2 -(O-CH 2 -CH 2 ) p1 - and -(CH 2 ) p1 -O-(CH 2 ) p2 -; and o, q, p1 and p2 are independently of each other an integer selected from 1, 2, 3, 4, 5, and 6; or enantiomers, diastereomers, mixtures of enantiomers, mixtures of diastereomers, anomers, hydrates, solvates of the above mentioned compounds and pharmaceutically acceptable salts thereof.
A fast-locking phase-locked loop, PLL, comprising: a gear-shifting loop filter , configured to have a dynamic bandwidth, wherein the gear-shifting loop filter comprising: a resistor set (R S2 ), configured to have a dynamic resistance; a capacitor set (C S1 , C S2 ), coupled to the resistor set (R S2 ), configured to have a dynamic capacitance; wherein the dynamic resistance is switched from a first resistance to a second resistance and the dynamic capacitance is switched from a first capacitance to a second capacitance, to make the dynamic bandwidth be switched from a first bandwidth to a second bandwidth, characterized in that the gear-shifting loop filter further comprises: another capacitor set (C S1 , C S2 ), coupled to the resistor set (R S2 ), configured to have another dynamic capacitance; wherein when the dynamic bandwidth is switched from the first bandwidth, set at the beginning of the locking operation, to the second bandwidth, bandwidth when locking operation is almost completed, said another dynamic capacitance is switched from another first capacitance to another second capacitance, to keep the phase margin of the fast-locking PLL unchanged. a gear-shifting loop filter , configured to have a dynamic bandwidth, wherein the gear-shifting loop filter comprising: a resistor set (R S2 ), configured to have a dynamic resistance; a capacitor set (C S1 , C S2 ), coupled to the resistor set (R S2 ), configured to have a dynamic capacitance; a resistor set (R S2 ), configured to have a dynamic resistance; a capacitor set (C S1 , C S2 ), coupled to the resistor set (R S2 ), configured to have a dynamic capacitance; wherein the dynamic resistance is switched from a first resistance to a second resistance and the dynamic capacitance is switched from a first capacitance to a second capacitance, to make the dynamic bandwidth be switched from a first bandwidth to a second bandwidth, characterized in that the gear-shifting loop filter further comprises: another capacitor set (C S1 , C S2 ), coupled to the resistor set (R S2 ), configured to have another dynamic capacitance; wherein when the dynamic bandwidth is switched from the first bandwidth, set at the beginning of the locking operation, to the second bandwidth, bandwidth when locking operation is almost completed, said another dynamic capacitance is switched from another first capacitance to another second capacitance, to keep the phase margin of the fast-locking PLL unchanged. another capacitor set (C S1 , C S2 ), coupled to the resistor set (R S2 ), configured to have another dynamic capacitance; wherein when the dynamic bandwidth is switched from the first bandwidth, set at the beginning of the locking operation, to the second bandwidth, bandwidth when locking operation is almost completed, said another dynamic capacitance is switched from another first capacitance to another second capacitance, to keep the phase margin of the fast-locking PLL unchanged.
A method of determining the volume of grey water remaining in a vessel having an interior volume and an axis of rotation after a first cement load has been discharged from said vessel, said method comprising: rotating said vessel at least one complete revolution and determining the angle of the axis of rotation of said vessel with respect to horizontal; providing at least one sensor in said interior volume positioned so as to be submerged in the grey water in said vessel during a first portion of said one complete revolution and not submerged in the grey water in said vessel during a second portion of said one complete revolution, said at least one sensor generating a first signal when it is submerged and a second signal when it is not submerged; determining the ratio of either said first portion or said second portion to said one complete revolution; comparing said ratio to a predetermined ratio indicative of the volume of grey water in said vessel; and either modifying the percentage of water in a second cement load to be loaded into said vessel based on said comparison or discharging at least a portion of said grey water from said vessel. rotating said vessel at least one complete revolution and determining the angle of the axis of rotation of said vessel with respect to horizontal; providing at least one sensor in said interior volume positioned so as to be submerged in the grey water in said vessel during a first portion of said one complete revolution and not submerged in the grey water in said vessel during a second portion of said one complete revolution, said at least one sensor generating a first signal when it is submerged and a second signal when it is not submerged; determining the ratio of either said first portion or said second portion to said one complete revolution; comparing said ratio to a predetermined ratio indicative of the volume of grey water in said vessel; and either modifying the percentage of water in a second cement load to be loaded into said vessel based on said comparison or discharging at least a portion of said grey water from said vessel.
A bioprinter comprising: a. one or more printer heads and at least one cartridge, wherein a printer head comprises a means for receiving and holding the at least one cartridge, wherein said at least one cartridge comprises a dispensing orifice and contents comprising a bio-ink; b. a means for calibrating the position of the at least one cartridge; c. a means for dispensing by extrusion the contents of the at least one cartridge, the contents comprise the bio-ink, the bio-ink comprises an extrudable solid or semi-solid composition comprising multicellular aggregates of mammalian cells. a. one or more printer heads and at least one cartridge, wherein a printer head comprises a means for receiving and holding the at least one cartridge, wherein said at least one cartridge comprises a dispensing orifice and contents comprising a bio-ink; b. a means for calibrating the position of the at least one cartridge; c. a means for dispensing by extrusion the contents of the at least one cartridge, the contents comprise the bio-ink, the bio-ink comprises an extrudable solid or semi-solid composition comprising multicellular aggregates of mammalian cells.
A cooking hob for a cooking appliance, comprising: a glass or glass ceramic substrate having a substrate outer face facing an exterior and an opposite substrate inner face facing an interior, in particular an interior of the cooking hob or cooking appliance; at least one display device with a display surface for displaying information by emission of light, in particular in the form of a graphical selectively controllable, preferably coloured pixel display; wherein the display device is arranged in the interior, in particular in the interior of the cooking hob or cooking appliance, such that light emitted from the display surface passes through the glass or glass ceramic substrate and is perceptible by a user in the exterior; wherein the display surface, when viewed from the exterior, has a luminance of greater than 60 cd/m 2 , wherein at least one display window is defined for the light emitted from the display surface; wherein within the range of the display surface or display window, the glass or glass ceramic substrate has a light transmittance (τ vis ) in a range from 5 % to 70 %, preferably in a range from 7 % to 55 %, more preferably in a range from 9 % to 45 %, most preferably in a range from 12 % to 30 %. a glass or glass ceramic substrate having a substrate outer face facing an exterior and an opposite substrate inner face facing an interior, in particular an interior of the cooking hob or cooking appliance; at least one display device with a display surface for displaying information by emission of light, in particular in the form of a graphical selectively controllable, preferably coloured pixel display; wherein the display device is arranged in the interior, in particular in the interior of the cooking hob or cooking appliance, such that light emitted from the display surface passes through the glass or glass ceramic substrate and is perceptible by a user in the exterior; wherein the display surface, when viewed from the exterior, has a luminance of greater than 60 cd/m 2 , wherein at least one display window is defined for the light emitted from the display surface; wherein within the range of the display surface or display window, the glass or glass ceramic substrate has a light transmittance (τ vis ) in a range from 5 % to 70 %, preferably in a range from 7 % to 55 %, more preferably in a range from 9 % to 45 %, most preferably in a range from 12 % to 30 %.
A method of performing a device-to-device, D2D, communication between user equipments, UEs, the method comprising: determining D2D subframes available for a D2D communication; and processing an initialization associated with a pseudo-random sequence of a D2D communication at a start of the D2D subframes, wherein the D2D subframes comprise a first D2D subframe and a second D2D subframe, wherein each of the first D2D subframe and the second D2D subframe comprises D2D slots, wherein the D2D slots comprise D2D slot number 0 and D2D slot number 1, and wherein the first D2D subframe and the second D2D subframe are included in the same resource pool defined in at least two radio frames; wherein the processing the initialization comprises, when a group hopping for a demodulation reference signal, DM-RS, associated with a transmission of a physical sidelink shared channel, PSSCH, is enabled, computing a group hopping initialization value associated with the group hopping at the start of each of the D2D subframes corresponding to D2D slot number 0. determining D2D subframes available for a D2D communication; and processing an initialization associated with a pseudo-random sequence of a D2D communication at a start of the D2D subframes, wherein the D2D subframes comprise a first D2D subframe and a second D2D subframe, wherein each of the first D2D subframe and the second D2D subframe comprises D2D slots, wherein the D2D slots comprise D2D slot number 0 and D2D slot number 1, and wherein the first D2D subframe and the second D2D subframe are included in the same resource pool defined in at least two radio frames; wherein the processing the initialization comprises, when a group hopping for a demodulation reference signal, DM-RS, associated with a transmission of a physical sidelink shared channel, PSSCH, is enabled, computing a group hopping initialization value associated with the group hopping at the start of each of the D2D subframes corresponding to D2D slot number 0.
Distribution unit for the parallel connection of at least two electrical loads to the on-board electrical system of a motor vehicle, comprising • an input interface for electrically connecting the distribution unit to a socket of a motor vehicle; • at least two output interfaces for electrically connecting the distribution unit to in each case one electrical load ; and • distribution electronics , wherein the distribution electronics produce an electronic connection between the input interface and the output interfaces ; wherein • the distribution electronics comprise a controller and an electronic switch ; wherein • the switch is able to be actuated via the controller in such a way that in each case one of the output interfaces is supplied with current by the input interface , while all the remaining output interfaces are not supplied with current. • an input interface for electrically connecting the distribution unit to a socket of a motor vehicle; • at least two output interfaces for electrically connecting the distribution unit to in each case one electrical load ; and • distribution electronics , wherein the distribution electronics produce an electronic connection between the input interface and the output interfaces ; wherein • the distribution electronics comprise a controller and an electronic switch ; wherein • the switch is able to be actuated via the controller in such a way that in each case one of the output interfaces is supplied with current by the input interface , while all the remaining output interfaces are not supplied with current.
A method for reducing an occurrence of an acoustic feedback in a hearing device , wherein a first wearing situation is established which determines a positioning of the hearing device relative to the wearer, wherein for the first wearing situation , a first use situation is established which is characterized by at least one body movement of the wearer of the hearing device and/or at least one relative position of an external object with respect to the body of the wearer, wherein for the first use situation , a plurality of frequency-resolved curves (34a-c) of a feedback tendency of the hearing device is determined, wherein, on the basis of the frequency-resolved curves (34a-c), a first criticality measure is determined for the first use situation , containing information on a critical frequency range with respect to an occurrence of acoustic feedback and a corresponding relative probability of an occurrence of acoustic feedback, wherein, for a given frequency, the first criticality measure for the first use situation is formed based on a scattering measure for the values of the feedback tendency at this frequency each of which resulting from the plurality of frequency-resolved curves (34a-c), wherein for the first wearing situation , a second use situation is established, wherein for the second use situation, a second criticality measure is determined in a manner analogous to the first criticality measure for the first use situation, and wherein, on the basis of the totality of the first criticality measure and the second criticality measure, a specification for fitting at least one hearing device parameter is made.
A variable vane system for a gas turbine, comprising: an actuator ; a drive gear ; a geared unison ring driven by the drive gear ; and a first variable vane stage with a multiple of vane gears , each of the multiple of vane gears mounted to a respective variable vane , each of the multiple of vane gears driven by the geared unison ring , wherein the unison ring includes a first gear rack meshed with the vane gears , characterised in that : the unison ring includes a gear rack segment meshed with the drive gear ; and the variable vane system further comprises a harmonic drive driven by the actuator , wherein the drive gear is driven by the harmonic drive . an actuator ; a drive gear ; a geared unison ring driven by the drive gear ; and a first variable vane stage with a multiple of vane gears , each of the multiple of vane gears mounted to a respective variable vane , each of the multiple of vane gears driven by the geared unison ring , wherein the unison ring includes a first gear rack meshed with the vane gears , characterised in that : the unison ring includes a gear rack segment meshed with the drive gear ; and the variable vane system further comprises a harmonic drive driven by the actuator , wherein the drive gear is driven by the harmonic drive . the unison ring includes a gear rack segment meshed with the drive gear ; and the variable vane system further comprises a harmonic drive driven by the actuator , wherein the drive gear is driven by the harmonic drive .
Magnetic base for a power tool, in particular for a magnetic core drilling machine, comprising a base body in which at least one first permanent magnet is accommodated, the magnetic force of which interacts with the magnetic force of at least one second permanent magnet to form a resultant holding force, the at least one second permanent magnet being rotatable about an angle of rotation (α) between a first position in which the resultant holding force of the magnetic base is maximized and a second position in which the resultant holding force of the magnetic base is minimized, in which the resultant holding force of the magnetic base is maximized, and a second position in which the resultant holding force of the magnetic base is minimized, is mounted in the base body so as to be rotatable about an axis of rotation , and with an adjusting means for rotating the second permanent magnet between the first position and the second position, wherein the adjusting means rotates the second permanent magnet about a rotation angle (β) between a first end position , in which the second permanent magnet is located in the first position, and a second end position , in which the second permanent magnet is located in the second position, is mounted so as to be rotatable about an axis of rotation , wherein a gear is provided between the adjusting means and the second permanent magnet , which gear is designed such that the ratio between the angle of rotation (β) of the adjusting means and the angle of rotation (α) of the second permanent magnet is between 1:3.6 and 1:1.5 and particularly preferably 1:2.4, and wherein the angle of rotation (β) between the first end position and the second end position is between 50° and 120° and particularly preferably 70°, characterized in that the at least one first permanent magnet is provided several times, and in that the plurality of first permanent magnets are combined into a first subgroup and into a second subgroup , which are each accommodated spatially separated from one another in the base body , such that the poles of the two subgroups are arranged as mirror images of one another.