mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile device , comprising: a sensor module comprising: three or more sensors ; and a substrate having the three or more sensors arranged thereon, wherein the sensors are mounted on a front surface of the mobile device ; characterised in that : the substrate is disposed on one side of a central area of an upper end of the mobile device, wherein the three or more sensors are arranged along a periphery of a digital block mounted to the substrate to interwork with the digital block; the three or more sensors comprise a gesture sensor , a depth sensor , and an ambient light or a proximity sensor ; and the depth sensor comprises two sensors that are spaced apart from each other and the ambient light or proximity sensor shares one sensor. a sensor module comprising: three or more sensors ; and a substrate having the three or more sensors arranged thereon, three or more sensors ; and a substrate having the three or more sensors arranged thereon, wherein the sensors are mounted on a front surface of the mobile device ; characterised in that : the substrate is disposed on one side of a central area of an upper end of the mobile device, wherein the three or more sensors are arranged along a periphery of a digital block mounted to the substrate to interwork with the digital block; the three or more sensors comprise a gesture sensor , a depth sensor , and an ambient light or a proximity sensor ; and the depth sensor comprises two sensors that are spaced apart from each other and the ambient light or proximity sensor shares one sensor. the substrate is disposed on one side of a central area of an upper end of the mobile device, wherein the three or more sensors are arranged along a periphery of a digital block mounted to the substrate to interwork with the digital block; the three or more sensors comprise a gesture sensor , a depth sensor , and an ambient light or a proximity sensor ; and the depth sensor comprises two sensors that are spaced apart from each other and the ambient light or proximity sensor shares one sensor.
Extruded strand, wherein said extruded strand comprises vitamin B9, at least one pH buffer, at least one filler and water.
A differential phase shift keying, DPSK-, receiver for adapting to the imperfection of a transmitter consisting in an undesired time-dependent variation of the carrier frequency, the receiver comprising means to receive signal packets from the transmitter, a time offset estimation and timed symbol extraction unit configured to output complex symbols y(k) of the signal packet, with k being a symbol index, and to feed y(k) to a frequency offset estimation unit and a frequency offset compensation unit , whereas the frequency offset estimation unit is configured to deliver phase values s(k) of the symbols y(k) and the frequency offset compensation unit is configured to compensate the received symbols for frequency offset and frequency drift and to feed said compensated result q(k) to a demodulation reference estimation unit and a symbol demodulation unit , whereas the demodulation reference estimation unit is configured to support a symbol demodulation for the symbol decision and bit mapping, characterized in, that the frequency offset estimation unit comprises a first and a second phase estimation unit and a dirty-clean-selector , whereas the first phase estimation unit , outputting a first phase error estimate e dirty (k) , comprises a first frequency offset estimation lowpass filter having a wider filter bandwidth than a second frequency offset estimation lowpass filter of the second phase estimation unit , outputting a second phase error estimate e clean (k) , and the dirty-clean-selector is configured to compare a ratio of the second phase error estimate e clean (k) and the first phase error estimate e dirty (k) against a threshold value T and outputting a binary comparison result c(k) , and the demodulation reference estimation unit comprises a first and a second filter , whereas the first filter as part of a "dirty"-receive path of the receiver has a wider filter bandwidth than the second filter as part of a "clean"-receive-path of the receiver, whereas if the ratio of the second and first phase error estimates e clean (k) / e dirty (k) falls below the threshold value T, the "clean"-receive path is used for outputting received information bits, otherwise the "dirty"-receive path is used.
A guide extension catheter (14; 100), comprising: a proximal shaft having a proximal end , a distal end , the distal end having an attachment region ; and a distal sheath having proximal and distal ends , a portion of the distal sheath includes a braided reinforcing member attached to the attachment region , wherein the distal sheath includes an inner polymer layer and outer polymer layer and wherein the proximal shaft is disposed between the outer polymer layer and the reinforcing member . a proximal shaft having a proximal end , a distal end , the distal end having an attachment region ; and a distal sheath having proximal and distal ends , a portion of the distal sheath includes a braided reinforcing member attached to the attachment region , wherein the distal sheath includes an inner polymer layer and outer polymer layer and wherein the proximal shaft is disposed between the outer polymer layer and the reinforcing member .
An aqueous resin dispersion (D) in which an olefin polymer (A), and a polymer (C) containing a constituent unit derived from a radically polymerizable monomer (B) represented by the following general formula are dispersed in an aqueous medium, wherein R is a hydrogen atom or a methyl group, and X is a straight chain or branched alkylene group having 3 to 5 carbon atoms; and n is an integer of 1 to 20, and wherein the olefin polymer (A) does not contain a chlorine atom. wherein R is a hydrogen atom or a methyl group, and X is a straight chain or branched alkylene group having 3 to 5 carbon atoms; and n is an integer of 1 to 20, and wherein the olefin polymer (A) does not contain a chlorine atom.
A battery module, comprising: a cell stack formed by stacking a plurality of battery cells having electrode leads ; a module frame coupled to one side or both sides of the cell stack and including a main frame , disposed at a center of the cell stack and accommodating a fire extinguishing unit , and a plurality of sub frames , disposed at both sides of the main frame and respectively interposed between battery cells adjacent to each other; and the fire extinguishing unit accommodated in the main frame of the module frame , wherein the fire extinguishing unit is located in the accommodation space formed in the main frame and respectively contacts accommodation portions of two battery cells located at a center portion among the plurality of battery cells of the cell stack ; wherein electrode leads located at one side of the main frame are coupled to each other to form one, first, electrode lead assembly, and electrode leads located on the other side of the main frame are coupled to each other to form another, second, electrode lead assembly; and the fire extinguishing unit is located adjacent to the first and second electrode lead assemblies and configured to eject a fire extinguishing agent when a temperature at the location where the fire extinguishing unit is disposed rises to or over a reference temperature. a cell stack formed by stacking a plurality of battery cells having electrode leads ; a module frame coupled to one side or both sides of the cell stack and including a main frame , disposed at a center of the cell stack and accommodating a fire extinguishing unit , and a plurality of sub frames , disposed at both sides of the main frame and respectively interposed between battery cells adjacent to each other; and the fire extinguishing unit accommodated in the main frame of the module frame , wherein the fire extinguishing unit is located in the accommodation space formed in the main frame and respectively contacts accommodation portions of two battery cells located at a center portion among the plurality of battery cells of the cell stack ; wherein electrode leads located at one side of the main frame are coupled to each other to form one, first, electrode lead assembly, and electrode leads located on the other side of the main frame are coupled to each other to form another, second, electrode lead assembly; and the fire extinguishing unit is located adjacent to the first and second electrode lead assemblies and configured to eject a fire extinguishing agent when a temperature at the location where the fire extinguishing unit is disposed rises to or over a reference temperature.
A heat treatment device utilizing heat exchange between a first fluid (M) and a second fluid (HC), the device comprising: a first heat transfer body including a first flow channel through which the first fluid (M) flows; a second heat transfer body including a second flow channel through which the second fluid (HC) flows, the second heat transfer body being stacked on the first heat transfer body ; and a casing having a space (S2, S3) communicating with the second flow channel , the casing being in contact with a surface including an edge of a connection interface between the first heat transfer body and the second heat transfer body , characterized in that the first heat transfer body further including a third flow channel provided in a wall portion isolating the first flow channel from the space (S2, S3) of the casing , the first flow channel being a groove in contact with the connection interface , and the third flow channel being a groove in contact with the connection interface and intersecting with a virtual line (L1, L2) connecting the first flow channel with the space (S2, S3) of the casing at the connection interface . a first heat transfer body including a first flow channel through which the first fluid (M) flows; a second heat transfer body including a second flow channel through which the second fluid (HC) flows, the second heat transfer body being stacked on the first heat transfer body ; and a casing having a space (S2, S3) communicating with the second flow channel , the casing being in contact with a surface including an edge of a connection interface between the first heat transfer body and the second heat transfer body , characterized in that the first heat transfer body further including a third flow channel provided in a wall portion isolating the first flow channel from the space (S2, S3) of the casing , the first flow channel being a groove in contact with the connection interface , and the third flow channel being a groove in contact with the connection interface and intersecting with a virtual line (L1, L2) connecting the first flow channel with the space (S2, S3) of the casing at the connection interface .
Process for the production of a demineralised whey powder, comprising the following steps: (a) separating raw milk into skimmed milk and cream; (b) microfiltrating or microdiafiltrating the skimmed milk, obtaining a whey protein-rich permeate P1 and a retentate R1 containing casein and Glycomacropeptide, wherein the microfiltration or the microdiafiltration is performed with a membrane having a pore size in the range from 0.1 to 1 μm; (c) separating the lactoferrin from the permeate P1 by means of column chromatography; (d) nanofiltrating the permeate P1 from which lactoferrin had been removed, obtaining a milk minerals-rich retentate R2 and a milk minerals-poor permeate P2, wherein the nanofiltration is performed with a membrane having a pore size in the range from 150 to about 1,000 nm; (e) dialysing the permeate P2 from which lactoferrin had been removed, wherein the permeate P2 is subjected to electrodialysis; (f) treating the diluate from step (e) with a cation exchanger; (g) drying the diluate, obtaining a product in powder form. (a) separating raw milk into skimmed milk and cream; (b) microfiltrating or microdiafiltrating the skimmed milk, obtaining a whey protein-rich permeate P1 and a retentate R1 containing casein and Glycomacropeptide, wherein the microfiltration or the microdiafiltration is performed with a membrane having a pore size in the range from 0.1 to 1 μm; (c) separating the lactoferrin from the permeate P1 by means of column chromatography; (d) nanofiltrating the permeate P1 from which lactoferrin had been removed, obtaining a milk minerals-rich retentate R2 and a milk minerals-poor permeate P2, wherein the nanofiltration is performed with a membrane having a pore size in the range from 150 to about 1,000 nm; (e) dialysing the permeate P2 from which lactoferrin had been removed, wherein the permeate P2 is subjected to electrodialysis; (f) treating the diluate from step (e) with a cation exchanger; (g) drying the diluate, obtaining a product in powder form.
Method for controlling an automated parking operation , in which a motor vehicle is controlled autonomously on a route between a handover point and a parking space , wherein the method comprises the following steps: a) recording the fact that a person is on board the motor vehicle during an autonomous driving procedure; b) determining that there is not permission to transport the person on the journey; and c) performing one or more actions; wherein transporting the person may be permitted upon a request, wherein the request is rejected only when a traffic situation in the region of the parking operation is classified as hazardous. a) recording the fact that a person is on board the motor vehicle during an autonomous driving procedure; b) determining that there is not permission to transport the person on the journey; and c) performing one or more actions;
A compound represented by the following Formula 1, or a pharmaceutically acceptable salt thereof: wherein R 1 and R 2 are each independently H, halogen, C 1-10 alkoxy, or halo C 1-10 alkyl; X is -C(-R 3 )= or -N=; R 3 and R 4 are each independently H, halogen, C 1-10 alkyl, or C 1-10 alkoxy; R 5 is H, halogen, or C 1-10 alkyl; and R 6 and R 7 are each independently H, C 1-6 alkyl, -C 1-6 alkylene-O-C 1-10 alkyl, or - C(=O)-O-C 1-10 alkyl, but not simultaneously H, or R 6 and R 7 , taken together with the N atom to which they are bonded, form wherein R a and R b are each independently C 1-3 alkylene, A is -N(-R 9 )- or -O-, and R 9 is C 1-6 alkyl. R 1 and R 2 are each independently H, halogen, C 1-10 alkoxy, or halo C 1-10 alkyl; X is -C(-R 3 )= or -N=; R 3 and R 4 are each independently H, halogen, C 1-10 alkyl, or C 1-10 alkoxy; R 5 is H, halogen, or C 1-10 alkyl; and R 6 and R 7 are each independently H, C 1-6 alkyl, -C 1-6 alkylene-O-C 1-10 alkyl, or - C(=O)-O-C 1-10 alkyl, but not simultaneously H, or R 6 and R 7 , taken together with the N atom to which they are bonded, form wherein R a and R b are each independently C 1-3 alkylene, A is -N(-R 9 )- or -O-, and R 9 is C 1-6 alkyl.
A multiple data rate memory comprising: a clock splitting circuit ; and a multiplexing address latch ; wherein the clock splitting circuit is configured to generate first and second internal clock pulses from a rising edge of an external clock signal and to provide the first and second internal clock signals to the multiplexing address latch ; wherein the multiplexing address latch is configured to output a first address signal in response to the first internal clock pulse and a second address signal in response to the second internal clock pulse; characterised in that , the multiplexing address latch comprises a multiplexer , the multiplexer comprising a first enable switch that is activated by the first internal clock signal and a second enable switch that is activated by the second internal clock signal, and wherein each of the first and second enable switches connects an output of the multiplexer to ground via an address signal-dependent switch . a clock splitting circuit ; and a multiplexing address latch ; wherein the clock splitting circuit is configured to generate first and second internal clock pulses from a rising edge of an external clock signal and to provide the first and second internal clock signals to the multiplexing address latch ; wherein the multiplexing address latch is configured to output a first address signal in response to the first internal clock pulse and a second address signal in response to the second internal clock pulse; characterised in that , the multiplexing address latch comprises a multiplexer , the multiplexer comprising a first enable switch that is activated by the first internal clock signal and a second enable switch that is activated by the second internal clock signal, and wherein each of the first and second enable switches connects an output of the multiplexer to ground via an address signal-dependent switch .
Heating unit of an installation for producing cement or for processing rock or ores, comprising a chamber for thermally treating material, said chamber having a wall on which a refractory lining is mounted, wherein a plurality of holders , which are cast into the refractory lining , are mounted on the wall , characterized in that a testing means for checking a state of wear of the refractory lining is mounted in the refractory lining , extends through the wall into the refractory lining and is fastened in such a way that it can be removed from the refractory lining .
A method of manufacturing a vapour generating product , the method comprising: (i) positioning non-liquid vapour generating material in a space defined by one or more walls configured to prevent movement of the vapour generating material by more than 2mm in a direction perpendicular to an axial direction of the vapour generating material , the one or more walls extending substantially in the axial direction of the vapour generating material ; (ii) aligning an axis of a rigid insertor with the axial direction of the vapour generating material ; and (iii) inserting the rigid insertor into the vapour generating material from a first end of the vapour generating material ; characterised in that the step (iii) comprises the steps of: partially inserting the rigid insertor into the vapour generating material from the first end whilst holding the rigid insertor ; and releasing the rigid inserter and pushing an end of the rigid inserter to fully insert the rigid insertor into the vapour generating material . (i) positioning non-liquid vapour generating material in a space defined by one or more walls configured to prevent movement of the vapour generating material by more than 2mm in a direction perpendicular to an axial direction of the vapour generating material , the one or more walls extending substantially in the axial direction of the vapour generating material ; (ii) aligning an axis of a rigid insertor with the axial direction of the vapour generating material ; and (iii) inserting the rigid insertor into the vapour generating material from a first end of the vapour generating material ; partially inserting the rigid insertor into the vapour generating material from the first end whilst holding the rigid insertor ; and releasing the rigid inserter and pushing an end of the rigid inserter to fully insert the rigid insertor into the vapour generating material .
A composition comprising: - at least the solubilizers corresponding to the following INCI designations: dibutyl adipate, dicaprylyl carbonate, diisopropyl sebacate and propylheptyl caprylate; and - at least one sunscreen derived from triazine represents an amount greater than 10% of the total weight of the composition. - at least the solubilizers corresponding to the following INCI designations: dibutyl adipate, dicaprylyl carbonate, diisopropyl sebacate and propylheptyl caprylate; and - at least one sunscreen derived from triazine represents an amount greater than 10% of the total weight of the composition.
1. Tailgate hinge with a chassis connection and a tailgate extension arm , wherein the chassis connection is hingedly connected to the tailgate extension arm via a pin , wherein the chassis connection has a U-shaped holder , consisting of a first leg and a second leg , with a first reach-through opening , wherein a slide-in element of the tailgate extension arm is placed between the two legs ,wherein the slide-in element has a second reach-through opening with an inner wall , wherein the pin engages through the first reach-through opening of the U-shaped holder and the second reach-through opening of the slide-in element , wherein in the second reach-through opening a rocker construction is provided, characterized in that a sleeve is placed between the second reach-through opening and the pin , wherein the sleeve has a convex curvature from the inner wall of the second reach-through opening towards the pin and wherein the sleeve forms a slip stop .
An electrical transducer system comprising: a) an electrical transducer comprising a substrate , a diaphragm , and a piezoelectric element ; b) a first electrical circuitry coupled to the electrical transducer, the first electrical circuitry configured for driving the electrical transducer or detecting motion of the diaphragm; c) a plurality of electrical ports coupled to the electrical transducer; and d) a second electrical circuitry connected to two or more of the plurality of electrical ports, the second electrical circuitry comprising a switch, wherein the switch is configured to leave one or more of the plurality of ports floating when open and short the one or more of the plurality of ports to a DC voltage when closed; wherein the second electrical circuitry is independent from the first electrical circuitry, and wherein the second electrical circuitry is configured to dampen the motion of the diaphragm. a) an electrical transducer comprising a substrate , a diaphragm , and a piezoelectric element ; b) a first electrical circuitry coupled to the electrical transducer, the first electrical circuitry configured for driving the electrical transducer or detecting motion of the diaphragm; c) a plurality of electrical ports coupled to the electrical transducer; and d) a second electrical circuitry connected to two or more of the plurality of electrical ports, the second electrical circuitry comprising a switch, wherein the switch is configured to leave one or more of the plurality of ports floating when open and short the one or more of the plurality of ports to a DC voltage when closed; wherein the second electrical circuitry is independent from the first electrical circuitry, and wherein the second electrical circuitry is configured to dampen the motion of the diaphragm.