mhurhangee/patent-ind-claim-en huggingface dataset:
Delta-sigma converter for a sensor signal , in particular a signal of a rotation rate sensor, wherein the delta-sigma converter is designed to output a digital output signal using the sensor signal and a 1-bit quantizer , wherein the delta-sigma converter has a control unit that is designed to generate a control signal based on a frequency of signal level changes of the digital output signal representing an activity in a considered interval of time, wherein the activity of the quantizer has a direct correlation to the existing loop gain, and wherein the delta-sigma converter has a digital compensation unit that is designed to output a compensation signal using the digital output signal and the control signal , wherein the digital compensation unit is designed to output a dither signal whose variance is adjustable as compensation signal , wherein the delta-sigma converter is furthermore designed to ascertain the digital output signal further using the compensation signal , and wherein the delta-sigma converter has an activity counter for determining the frequency of signal level changes from the digital output signal , which activity counter is designed to count a number of signal level changes of the digital output signal , characterized in that the control unit is designed to thus generate the control signal in order to set the activity to a defined value. wherein the delta-sigma converter is designed to output a digital output signal using the sensor signal and a 1-bit quantizer , wherein the delta-sigma converter has a control unit that is designed to generate a control signal based on a frequency of signal level changes of the digital output signal representing an activity in a considered interval of time, wherein the activity of the quantizer has a direct correlation to the existing loop gain, and wherein the delta-sigma converter has a digital compensation unit that is designed to output a compensation signal using the digital output signal and the control signal , wherein the digital compensation unit is designed to output a dither signal whose variance is adjustable as compensation signal , wherein the delta-sigma converter is furthermore designed to ascertain the digital output signal further using the compensation signal , and wherein the delta-sigma converter has an activity counter for determining the frequency of signal level changes from the digital output signal , which activity counter is designed to count a number of signal level changes of the digital output signal , characterized in that the control unit is designed to thus generate the control signal in order to set the activity to a defined value.
A method for manufacturing a nanostructured powder comprising nanocrystalline agglomerates containing active pharmaceutical ingredient (API) in its crystalline form, said method comprising: (i) Preparing a first solution comprising API and an API solvent; (ii) Mixing the first solution with a second solution comprising an API antisolvent and optionally a stabilizing agent P1 to obtain a miscible liquid mixture containing the API solvent, the API antisolvent, and solubilized API; (iii) Evaporating said miscible liquid mixture until both the API solvent and the API antisolvent are evaporated, advantageously under vacuum; characterized in that - when the stabilizing agent P1 is present, the miscible liquid mixture has a stabilizing agent P1 to API weight ratio equal or less than 5, preferably less than 2, - the API antisolvent volume to API solvent volume ratio is at least of 4.5, preferably at least of 5, - the method does not comprise any intermediate step between steps (ii) and (iii), in particular any filtration or any other step intended to eliminate micrometric particles, and - the API nanocrystals form and/or develop during step (iii). (i) Preparing a first solution comprising API and an API solvent; (ii) Mixing the first solution with a second solution comprising an API antisolvent and optionally a stabilizing agent P1 to obtain a miscible liquid mixture containing the API solvent, the API antisolvent, and solubilized API; (iii) Evaporating said miscible liquid mixture until both the API solvent and the API antisolvent are evaporated, advantageously under vacuum; - when the stabilizing agent P1 is present, the miscible liquid mixture has a stabilizing agent P1 to API weight ratio equal or less than 5, preferably less than 2, - the API antisolvent volume to API solvent volume ratio is at least of 4.5, preferably at least of 5, - the method does not comprise any intermediate step between steps (ii) and (iii), in particular any filtration or any other step intended to eliminate micrometric particles, and - the API nanocrystals form and/or develop during step (iii).
A sustained release pharmaceutical composition for oral administration comprising Tapentadol or pharmaceutically acceptable salt thereof in a matrix core comprising a hydrophilic and a hydrophobic polymer at polymer ratio 1: 1, wherein the hydrophilic polymer is polyethylene oxide of high molecular weight and the hydrophobic polymer is a blend of polyvinyl acetate and povidone in the ratio 8:2.
A method by a telephony server for sharing device capabilities of client devices with a service provider entity , the method comprising the steps of: obtaining device capabilities of one or more client devices in a home network environment ; storing the device capabilities in a phone data model by using a call management service action; mapping the device capabilities stored in the phone data model to elements in a user agent profile ; and transmitting the user agent profile including the device capabilities to the service provider entity , wherein the service provider entity delivers telephony services to the one or more client devices according to respective device capabilities based on the user agent profile . obtaining device capabilities of one or more client devices in a home network environment ; storing the device capabilities in a phone data model by using a call management service action; mapping the device capabilities stored in the phone data model to elements in a user agent profile ; and transmitting the user agent profile including the device capabilities to the service provider entity , wherein the service provider entity delivers telephony services to the one or more client devices according to respective device capabilities based on the user agent profile .
Sliding element comprising a copper/zinc alloy, which contains the following components (in % by weight): from 60.0 to 64.0% Cu, from 0.2 to 0.5% Si, from 0.6 to 1.2% Fe, optionally also up to a maximum of 1.5% Sn, optionally also up to a maximum of 0.25% Pb, optionally also up to a maximum of 0.08% P, the balance being Zn and inevitable impurities, characterised in that the copper/zinc alloy has a structure which comprises α-phase and β-phase and which has a volume proportion of the α-phase of at least 90%, wherein iron silicides are intercalated in the structure. from 60.0 to 64.0% Cu, from 0.2 to 0.5% Si, from 0.6 to 1.2% Fe, optionally also up to a maximum of 1.5% Sn, optionally also up to a maximum of 0.25% Pb, optionally also up to a maximum of 0.08% P, the balance being Zn and inevitable impurities, characterised in that the copper/zinc alloy has a structure which comprises α-phase and β-phase and which has a volume proportion of the α-phase of at least 90%, wherein iron silicides are intercalated in the structure.
Line-guiding device composed of members , connected to one another in an articulated manner and open at their end faces, which are arranged one behind the other in the longitudinal direction of the line-guiding device and form, by means of radially outer guide elements , a guide channel for receiving and guiding energy and/or information cables, wherein the members each have inside the guide channel a central joint body for the articulated connection of immediately adjacent members , which joint body comprises a joint head and a joint socket having an opening for insertion of the joint head of an immediately adjacent member , wherein the joint socket comprises a first receiving region in which the joint head inserted therein of an immediately adjacent member is secured against rotation about the longitudinal axis (A) of the line-guiding device , and wherein immediately adjacent members can be angled relative to the longitudinal axis (A) of the line-guiding device in at least two different angling planes, characterized in that the joint head comprises an axial region relative to the longitudinal axis (A) of the line-guiding device in which the cross-section of the joint head comprises a peripheral geometry with at least two vertices and lateral lines connecting the vertices together, wherein, for all the vertices of the peripheral geometry, the lateral lines meeting at a vertex enclose an internal angle of less than 180°, and the joint socket comprises a first receiving region corresponding geometrically to the axial region of the joint head , in which receiving region the joint head can be locked, so that the joint head of an immediately adjacent member seated with the axial region in the first receiving region of the joint socket of a member is arranged non-rotatably therein and can be angled in at least two different angular planes.
Method for controlling a motor vehicle powertrain, which powertrain comprises a coupling device , a driving motor and a gearbox , the said coupling device being capable of selectively securing in rotation a drive shaft of the driving motor and a primary shaft of the gearbox as a function of a coupling command (CA_emb), said method comprising the calculation of a speed difference (aR) between the rotational speed (R_ap) of the primary shaft and a value (R_cal) of a stall speed of the driving engine , the calculation of a setpoint coupling limitation (CS_lim) as a function of the difference in speed (ti) and the piloting of the coupling command (CA_emb) by the coupling limitation setpoint (CS_lim) characterized in that . the coupling limitation setpoint (CS_lim) drives the coupling device into a locking state and in that it further comprises the determination of a locking setpoint (CS_ver) of the coupling device , the coupling command (CA_emb) being the result of a function returning a transmissible torque value which is the lower between the coupling limitation setpoint (CS_lim) and the locking setpoint (CS_ver).
A method of visualizing a sequence of 3D ultrasound images of an object in motion, wherein said motion is a complex motion composed of motion components from a plurality of origins, the method comprising: acquiring said sequence of 3D ultrasound images, said sequence including a first 3D ultrasound image acquired at a first point in time and a second 3D ultrasound image acquired at a second point in time, wherein the 3D ultrasound images are decomposable in a plurality of slices each depicting a different segment of the object ; providing a motion tracking model modelling a contribution to the complex motion, said contribution originating from a subset of said motion components; determining said complex motion from the first and second 3D ultrasound images; and visualizing a contribution of the motion tracking model to the complex motion of said object in order to obtain a motion-decomposed visualization of said complex motion, and characterized in that : the motion tracking model comprises a reference rotation (R) and wherein said visualizing comprises visualizing a rotation of the segments of said object relative to said reference rotation and wherein providing the motion tracking model comprises providing a predefined motion tracking model. acquiring said sequence of 3D ultrasound images, said sequence including a first 3D ultrasound image acquired at a first point in time and a second 3D ultrasound image acquired at a second point in time, wherein the 3D ultrasound images are decomposable in a plurality of slices each depicting a different segment of the object ; providing a motion tracking model modelling a contribution to the complex motion, said contribution originating from a subset of said motion components; determining said complex motion from the first and second 3D ultrasound images; and visualizing a contribution of the motion tracking model to the complex motion of said object in order to obtain a motion-decomposed visualization of said complex motion, and characterized in that : the motion tracking model comprises a reference rotation (R) and wherein said visualizing comprises visualizing a rotation of the segments of said object relative to said reference rotation and wherein providing the motion tracking model comprises providing a predefined motion tracking model.
Transportable unit (1;1') for forming a straight parallelepiped-shaped residential space, provided with a bottom (2a;2a') and a covering (2b;2b') , and upright walls (3a,4a,3b,4b,29a;29a',29a',20a',29b;29b',29b',20b') extending in between them, which walls can be converted between a retracted transport position and an extended- operational position, in which the unit has a height which is larger than the height in the retracted transport position, wherein the unit is stackable and equipped as a sanitary unit having a series of toilet bowls , wherein the upright walls form partitions/inner walls (60;29') for shielding off sub-spaces (30; 28') for the toilet bowls, wherein the bottom is part of a lower section (1a;1a') of the unit and the covering is part of an upper section (1b;1b') of the unit, and wherein the toilet bowls are arranged in the extended-operational position in the lower section of the unit comprising the bottom. wherein the bottom is part of a lower section (1a;1a') of the unit and the covering is part of an upper section (1b;1b') of the unit, and wherein the toilet bowls are arranged in the extended-operational position in the lower section of the unit comprising the bottom.
A kit comprising antibodies to distinguish between a bacterial infection and a viral infection or bacterial or mixed infection, and a viral infection, wherein a first antibody of said antibodies binds to TNF-related apoptosis-inducing ligand (TRAIL) and a second antibody of said antibodies binds to C-reactive protein (CRP) and a third antibody of said antibodies binds to interferon-γ-inducible protein 10 (IP10) wherein said antibodies consist of said first antibody, said second antibody and said third antibody.
A HEAD FASTENING ARRANGEMENT OF A COOLING COMPRESSOR, comprising: a cylinder of the cooling compressor, a head arranged by the cylinder of the cooling compressor and having a head lid , at least one supporting device also arranged by the cylinder ; at least one element of union of the head lid to the supporting device , wherein the element of union is capable of transmitting force that presses the head lid and the supporting device against the cylinder , wherein the head is arranged at the front of the cylinder and the supporting device is arranged at the rear part of the cylinder , the supporting device being arranged at an opposite position to the head characterized by the fact that the supporting device comprises at least four spare contact regions arranged on its surface faced to the cylinder, the supporting device comprises an arched format, wherein a first and a second spare contact region are arranged, respectively, in a first end zone and in a second end zone of the arched supporting device , further wherein a third and fourth contact regions are arranged in an rearmost area of the arched supporting device a cylinder of the cooling compressor, a head arranged by the cylinder of the cooling compressor and having a head lid , at least one supporting device also arranged by the cylinder ; at least one element of union of the head lid to the supporting device , wherein the element of union is capable of transmitting force that presses the head lid and the supporting device against the cylinder , wherein the head is arranged at the front of the cylinder and the supporting device is arranged at the rear part of the cylinder , the supporting device being arranged at an opposite position to the head characterized by the fact that the supporting device comprises at least four spare contact regions arranged on its surface faced to the cylinder, the supporting device comprises an arched format, wherein a first and a second spare contact region are arranged, respectively, in a first end zone and in a second end zone of the arched supporting device , further wherein a third and fourth contact regions are arranged in an rearmost area of the arched supporting device
A method of determining when to harvest cells from a cell growth chamber of a cell expansion system comprising the steps of: measuring the number of cells initially loaded into the cell growth chamber; measuring the concentration of lactate generated at various times throughout a cell expansion cycle; and using the measurements to determine when to harvest the expanded cells from the cell growth chamber at the end of a cell expansion cycle, wherein the determining comprises: using an algorithm comprising: lnm L = c + lnN o wherein m L is a lactate mass, N o is the number of cells initially loaded into the cell growth chamber and c is a constant. measuring the number of cells initially loaded into the cell growth chamber; measuring the concentration of lactate generated at various times throughout a cell expansion cycle; and using the measurements to determine when to harvest the expanded cells from the cell growth chamber at the end of a cell expansion cycle, wherein the determining comprises: using an algorithm comprising: lnm L = c + lnN o wherein m L is a lactate mass, N o is the number of cells initially loaded into the cell growth chamber and c is a constant.
A method for controlling switching of proximity-event detection elements, being performed by a terminal device comprising a touch screen configured to work as a touch screen proximity sensor, and an infrared proximity sensor , the method comprising: obtaining an instruction of switching the screen of the terminal device from a current first state to a second state, wherein the first state and the second state are respectively a screen-on state and a screen-off state, or respectively the screen-off state and the screen-on state; invoking a pre-established switching thread to switch from the touch screen proximity sensor corresponding to the screen-on state to the infrared proximity sensor corresponding to the screen-off state when the first state is the screen-on state and the second state is the screen-off state, and to switch from the infrared proximity sensor corresponding to the screen-off state to the touch screen proximity sensor corresponding to the screen-on state when the current first state is the screen-off state and the second state is the screen-on state, so that the infrared proximity sensor is configured to detect a screen proximity event when the screen is in the screen-off state, and the touch screen proximity sensor is configured to detect a screen proximity event when the screen is in the screen-on state; and switching the screen of the terminal device from the first state to the second state, in response to obtaining a switching success notification from the switching thread. obtaining an instruction of switching the screen of the terminal device from a current first state to a second state, wherein the first state and the second state are respectively a screen-on state and a screen-off state, or respectively the screen-off state and the screen-on state; invoking a pre-established switching thread to switch from the touch screen proximity sensor corresponding to the screen-on state to the infrared proximity sensor corresponding to the screen-off state when the first state is the screen-on state and the second state is the screen-off state, and to switch from the infrared proximity sensor corresponding to the screen-off state to the touch screen proximity sensor corresponding to the screen-on state when the current first state is the screen-off state and the second state is the screen-on state, so that the infrared proximity sensor is configured to detect a screen proximity event when the screen is in the screen-off state, and the touch screen proximity sensor is configured to detect a screen proximity event when the screen is in the screen-on state; and switching the screen of the terminal device from the first state to the second state, in response to obtaining a switching success notification from the switching thread.
A material structure for a solar cell, the material structure comprising, a light absorbing layer being a a compound semiconductor material consisting of Cu(In, Ga)Se 2 , Cu(In, Ga)(S, Se) 2 , Cu 2 ZnSn(S, Se) 4 , or CdTe, a light reflecting metal layer , a passivation layer comprising a dielectric material and/or a semiconductor material, the passivation layer being arranged in between the light absorbing layer and the light reflecting metal layer , the passivation layer comprising a plurality of electrical contacts comprising molybdenum, Mo, the electrical contacts extending from a top surface to a bottom surface of the passivation layer such that the electrical contacts are in galvanic contact with the light absorbing layer and the light reflecting metal layer , wherein the electrical contacts are formed by a first metal and the light reflecting metal layer is formed by a second metal, the second metal being different from the first metal, the second metal having an improved reflectivity as compared to the first metal, wherein the light reflecting layer is arranged to reflect light back into the light absorbing layer .
A method for managing security contexts at idle mode mobility of a wireless communication device between different wireless communication systems including a first wireless communication system and a second wireless communication system , wherein the first wireless communication system is a 5G/Next Generation System, 5G/NGS, system, and the second wireless communication system is a 4G/Evolved Packet System, 4G/EPS, system, wherein the 5G/NGS system is a source system and the 4G/EPS system is a target system during idle mode mobility, and said method comprising: - obtaining (S1) a 5G/NGS security context, including at least one 5G/NGS security key, and - mapping (S2) the 5G/NGS security context to a 4G/EPS security context, comprising deriving (S2-1) at least one 4G/EPS security key based on the at least one 5G/NGS security key, wherein the 4G/EPS security context comprises the at least one 4G/EPS security key. - obtaining (S1) a 5G/NGS security context, including at least one 5G/NGS security key, and - mapping (S2) the 5G/NGS security context to a 4G/EPS security context, comprising deriving (S2-1) at least one 4G/EPS security key based on the at least one 5G/NGS security key, wherein the 4G/EPS security context comprises the at least one 4G/EPS security key.