mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic stethoscope apparatus (100-1) comprising: a chest piece; a bioacoustics sensing part for sensing bioacoustics; a noise sensing part for sensing noise generated in the bioacoustics sensing process, the noise sensing part comprising a movement sensor for sensing movement of the electronic stethoscope apparatus (100-1), the movement sensor being mounted on an inner or outer surface of the chest piece; and a noise removing part for removing the sensed noise and outputting the sensed bioacoustics with the removed noise, wherein the noise removing part is operable to use the sensed movement to calculate a noise signal, and is operable to output the sensed bioacoustics by filtering the sensed bioacoustics with the frequency of the noise signal; the noise sensing part further comprises a microphone; and noise removing part is further operable to output the sensed bioacoustics by filtering the sensed bioacoustics with a frequency of a noise signal sensed by the microphone in addition to filtering the sensed bioacoustics with the frequency of the noise signal calculated from the sensed movement, and the noise removing part is configured to use the sensed movement to estimate the noise occurring area. a chest piece; a bioacoustics sensing part for sensing bioacoustics; a noise sensing part for sensing noise generated in the bioacoustics sensing process, the noise sensing part comprising a movement sensor for sensing movement of the electronic stethoscope apparatus (100-1), the movement sensor being mounted on an inner or outer surface of the chest piece; and a noise removing part for removing the sensed noise and outputting the sensed bioacoustics with the removed noise, wherein the noise removing part is operable to use the sensed movement to calculate a noise signal, and is operable to output the sensed bioacoustics by filtering the sensed bioacoustics with the frequency of the noise signal; the noise sensing part further comprises a microphone; and noise removing part is further operable to output the sensed bioacoustics by filtering the sensed bioacoustics with a frequency of a noise signal sensed by the microphone in addition to filtering the sensed bioacoustics with the frequency of the noise signal calculated from the sensed movement, and the noise removing part is configured to use the sensed movement to estimate the noise occurring area.
A display screen assembly, comprising a display screen , a frame , and a transparent protective plate , the display screen comprising a display surface , the display surface being provided with a display region and a non-display region , and the non-display region surrounding the display region ; the frame being provided with a frame flange on an inner side of the frame , the frame flange entirely shielding the non-display region ; and a periphery of the transparent protective plate being secured to the frame , and one surface of the transparent protective plate close to the display screen at least covering the display surface ; wherein the periphery of the transparent protective plate is provided with an engaging structure , the engaging structure is a step facing the frame flange , and the frame flange is positioned on the engaging structure ; wherein the engaging structure comprises a sidewall facing the frame flange ; wherein the periphery of the transparent protective plate further defines a protective plate groove in the sidewall facing the frame flange , the protective plate groove including a bearing surface for bearing a shielding surface of the frame flange ; wherein the frame flange comprises a connection surface facing the transparent protective plate and configured to fit to the sidewall , and a projection protruding from the sidewall that is receivable in the protective plate groove ; and wherein the protective plate groove is over the non-display region , whereby, when the projection is received in the protective plate groove , the non-display region is entirely covered by the frame flange .
A preform configured to form a container, the preform comprising: a finish defining an opening and a top sealing surface configured to contact a closure to seal the opening closed; a body portion extending from the finish ; a bottom portion at an end of the preform opposite to the finish , a longitudinal axis (A) of the preform extends through an axial center of the bottom portion ; an oxygen barrier layer comprising an oxygen scavenger and extending along the body portion to the bottom portion , and across the bottom portion ; and a base layer including an outer portion and an inner portion , wherein the oxygen barrier layer is between the outer portion and the inner portion , the oxygen barrier layer extending along the body portion and the bottom portion ; wherein the oxygen barrier layer is tapered such that the oxygen barrier layer is closest to the inner surface at and proximate to the bottom portion , and is furthest from the inner surface and closest to the outer surface furthest from the bottom portion and proximate to the support flange , the preform being characterized in that the oxygen barrier layer comprises an oxygen scavenger that is about 0.25%-5% of a total weight of the oxygen barrier layer .
Fluidic arrangement for a sanitary fitting , having an outlet piece and a valve and a hose which fluidically connects the outlet piece to the valve , wherein the hose is fluidically connected at a point of the valve facing away from the outlet piece in the position of use of the valve , wherein the hose is composed of two hose pieces which are fluidically connected to one another via a connecting element , wherein the hose has a deflection at a point spaced apart from its two ends , wherein the deflection is produced by means of the connecting element fluidically connecting two hose pieces , wherein the connecting element has two hose receptacles and a connecting channel connecting them fluidically, wherein the connecting element has a first part and a second part , characterized in that the first part has a shaped portion which engages in the second part to form the connecting channel .
An apparatus for twisting a first and a second single electrical wire to form a cable pair , wherein the device comprises a main twisting device and a retwisting device with a stationary retwisting module and a retwisting module that is movable along a linear guide direction, wherein each of the retwisting modules comprises a transfer unit for transferring and holding an end of the twisted cable pair , wherein the transfer unit comprises a first wire gripper for the first single electrical wire and a second wire gripper for the second single electrical wire , wherein a relative distance between the first wire gripper and the second wire gripper can be changed, typically changed programmably, according to a distance (a3) between the ends of the wires , wherein at least one of the stationary retwisting module and the movable retwisting module is configured for retwisting of the respective held cable pair .
A disposable absorbent article comprising: a. an apertured nonwoven topsheet having a body surface and an opposing garment surface, wherein said body surface has an effective aperture area of greater than 1.8 mm 2 and less than 3.5 mm 2 ; b. a backsheet; c. an absorbent core disposed between said topsheet and said backsheet; d. a surface modifying composition disposed on said body surface of said topsheet, said composition comprising hydrophobic particles and a hydrophobic binder in a ratio of binder to particles of 4:1 to 1:4, wherein the ratio is measured on a weight basis, and wherein, post insult, said article has a Topsheet Stain Area is less than 30 mm 2 as determined by the method for measuring the Topsheet Stain Area as defined in the test methods section herein. a. an apertured nonwoven topsheet having a body surface and an opposing garment surface, wherein said body surface has an effective aperture area of greater than 1.8 mm 2 and less than 3.5 mm 2 ; b. a backsheet; c. an absorbent core disposed between said topsheet and said backsheet; d. a surface modifying composition disposed on said body surface of said topsheet, said composition comprising hydrophobic particles and a hydrophobic binder in a ratio of binder to particles of 4:1 to 1:4, wherein the ratio is measured on a weight basis, and wherein, post insult, said article has a Topsheet Stain Area is less than 30 mm 2 as determined by the method for measuring the Topsheet Stain Area as defined in the test methods section herein.
A pairing method for a wireless headset, the wireless headset comprising a first wireless earpiece and a second wireless earpiece , the pairing method comprising: establishing (S201), by an intermediate device , wireless communication connections respectively with the first wireless earpiece and the second wireless earpiece , and sending pairing information respectively to the first wireless earpiece and the second wireless earpiece based on the established wireless communication connections; and establishing (S202), by the first wireless earpiece and the second wireless earpiece , a wireless communication link between the first wireless earpiece and the second wireless earpiece based on the pairing information, characterized in that the pairing information comprises a designated MAC address, an RF channel and an RF access code that are dynamically-assigned, the RF channel and the RF access code being required for communication between the first wireless earpiece and the second wireless earpiece , and the pairing method further comprises performing, by another device, wireless data transmission synchronously with the first wireless earpiece and the second wireless earpiece based on the dynamically-assigned designated MAC address. establishing (S201), by an intermediate device , wireless communication connections respectively with the first wireless earpiece and the second wireless earpiece , and sending pairing information respectively to the first wireless earpiece and the second wireless earpiece based on the established wireless communication connections; and establishing (S202), by the first wireless earpiece and the second wireless earpiece , a wireless communication link between the first wireless earpiece and the second wireless earpiece based on the pairing information, characterized in that the pairing information comprises a designated MAC address, an RF channel and an RF access code that are dynamically-assigned, the RF channel and the RF access code being required for communication between the first wireless earpiece and the second wireless earpiece , and the pairing method further comprises performing, by another device, wireless data transmission synchronously with the first wireless earpiece and the second wireless earpiece based on the dynamically-assigned designated MAC address.
Ventilator apparatus (A), comprising at least one differential pressure measurement path and a differential pressure sensor , wherein the differential pressure measurement path has a flow channel with at least two measurement openings which are arranged between an inflow opening and an outflow opening of the flow channel and which are adjoined by measurement lines arranged in measurement nozzles , wherein a respiratory gas is guided from the inflow opening to the outflow opening through the flow channel in a principal flow direction (S) and wherein a volumetric flow rate/differential pressure characteristic is realized by the differential pressure measurement path in conjunction with the differential pressure sensor , said characteristic lying between a linear curve a·X 1.0 + b and a curve describable by a·X 1.5 + b, wherein the coefficient b is approximately equal to 0 depending on the pressure sensor employed, wherein, in the principal flow direction (S) of the respiratory gas through the flow channel , the flow channel has an at least partly ring-shaped embodiment or an embodiment as a ring segment, that the measurement nozzles are flanged onto the flow channel in such a way that the alignment (M) of the measurement lines , at least in the region of the measurement openings , has an essential component that is tangential to the outer delimiting face of the flow channel and/or to the principal flow direction (S) of the respiratory gas in the flow channel and that the alignment (M) of a measurement line , at least in the region of a measurement opening , lies in an angular range of 0° to 60°, as measured from the axis (T) defined by the local tangent in the direction of an axis (R) which is orthogonal thereto and extends in the radial direction.
A cementitious mixture comprising: (a) cement, 300 to 1000 kg/m 3 of the cementitious mixture; (b) aggregate, 700 to 2000 kg/m 3 of the cementitious mixture; (c) water, 40 to 600 kg/m 3 of the cementitious mixture; (d) expansive agent, 30 to 150 kg/m 3 of the cementitious mixture, selected from the group consisting of CSA (calcium sulfoaluminate)-based expansive agents; (e) superabsorbent polymer, 0.1-1.0% by mass of component (a), selected from the group consisting of cross-linked polyelectrolytes; (f) shrinkage reducing admixture, 0.1 to 5 % by mass of component (a); (g) optionally plasticizer, 0.01 to 5 % by mass of component (a); (h) optionally mineral admixtures, 5 to 230% by mass of component (a); (i) optionally additives in the range 0.01-5% by mass of component (a); and where the ratio component (d) : component (a) is at least 1 : 10; and where component (f) is selected from the group consisting of non-ionic surfactants. (a) cement, 300 to 1000 kg/m 3 of the cementitious mixture; (b) aggregate, 700 to 2000 kg/m 3 of the cementitious mixture; (c) water, 40 to 600 kg/m 3 of the cementitious mixture; (d) expansive agent, 30 to 150 kg/m 3 of the cementitious mixture, selected from the group consisting of CSA (calcium sulfoaluminate)-based expansive agents; (e) superabsorbent polymer, 0.1-1.0% by mass of component (a), selected from the group consisting of cross-linked polyelectrolytes; (f) shrinkage reducing admixture, 0.1 to 5 % by mass of component (a); (g) optionally plasticizer, 0.01 to 5 % by mass of component (a); (h) optionally mineral admixtures, 5 to 230% by mass of component (a); (i) optionally additives in the range 0.01-5% by mass of component (a); and
A respiratory interface comprising: a mask frame , a seal module configured to couple to the mask frame and interface to a user's mouth and/or nose to deliver respiratory gases to the user, and a magnetic coupling system arranged to magnetically couple the seal module to the mask frame, wherein the magnetic coupling system comprises at least one magnet associated with one of the seal module or mask frame and at least one other magnet or ferrous part associated with the other of the seal module or mask frame , and wherein the magnet or magnets and corresponding ferrous part(s) are elastically movably mounted such that they can move relative to the seal module and/or frame , characterized in that the magnet or magnets and corresponding ferrous part(s) are mounted such that the seal module and mask frame will attract only in one predetermined orientation of the seal module relative to the mask frame and repel when the seal module is offered to the mask frame in any orientation other than the one predetermined orientation. a mask frame , a seal module configured to couple to the mask frame and interface to a user's mouth and/or nose to deliver respiratory gases to the user, and a magnetic coupling system arranged to magnetically couple the seal module to the mask frame, wherein the magnetic coupling system comprises at least one magnet associated with one of the seal module or mask frame and at least one other magnet or ferrous part associated with the other of the seal module or mask frame , and wherein the magnet or magnets and corresponding ferrous part(s) are elastically movably mounted such that they can move relative to the seal module and/or frame , characterized in that the magnet or magnets and corresponding ferrous part(s) are mounted such that the seal module and mask frame will attract only in one predetermined orientation of the seal module relative to the mask frame and repel when the seal module is offered to the mask frame in any orientation other than the one predetermined orientation.
A dual mode power tool for treating a surface, the power tool comprising: - a motor operable in two rotation directions, - a shaft driven by the motor , - a fixing member connectable to a pad, - a bearing enabling rotation of the fixing member around its own axis in two directions, wherein the fixing member is arranged eccentrically to the shaft , - a locking mechanism , and - a housing, wherein an operation mode of the dual mode power tool is changeable by changing rotation direction of the motor, characterized in that the dual mode power tool further comprises a gear rim , and a gear connection of gears of the fixing member and gears of the gear rim , wherein the locking mechanism is arranged to engage the gear rim to the housing when the motor is driven in one rotation direction so as to force the fixing member to rotate around its own axis with a ratio between the gear of the rim and the gear of the fixing member , and wherein the locking mechanism is arranged to disengage the gear rim from the housing when the motor is driven in the other rotation direction so that the fixing member is arranged to rotate freely around its own axis. - a motor operable in two rotation directions, - a shaft driven by the motor , - a fixing member connectable to a pad, - a bearing enabling rotation of the fixing member around its own axis in two directions, wherein the fixing member is arranged eccentrically to the shaft , - a locking mechanism , and - a housing, wherein an operation mode of the dual mode power tool is changeable by changing rotation direction of the motor, characterized in that the dual mode power tool further comprises a gear rim , and a gear connection of gears of the fixing member and gears of the gear rim , wherein the locking mechanism is arranged to engage the gear rim to the housing when the motor is driven in one rotation direction so as to force the fixing member to rotate around its own axis with a ratio between the gear of the rim and the gear of the fixing member , and wherein the locking mechanism is arranged to disengage the gear rim from the housing when the motor is driven in the other rotation direction so that the fixing member is arranged to rotate freely around its own axis.
Method for operating an automatically driven, driverless motor vehicle , which is in the form of a passenger car, wherein sensor data recorded by environment sensors of the motor vehicle , comprising at least one camera , are evaluated with respect to objects to be taken into account when planning the trajectory, which objects can be classified either as an obstacle or not an obstacle by using at least one classifier evaluating the associated sensor data, characterised in that in case of an object that cannot be classified at all or cannot be classified with sufficient certainty as either being an obstacle or not being an obstacle and/or in case of at least one object preventing further driving of the motor vehicle to a current destination, at least one camera image of the corresponding object is taken by at least one of the at least one cameras , is transmitted to a portable mobile communication device carried by a user of the motor vehicle and is displayed there, an input of a user classifying the object as being an obstacle or not being an obstacle is received as classification information, the classification information is sent back to the vehicle and is taken into account when planning the trajectory.
An ionizing radiation detection device comprising: an insulating substrate; first and second metallic contact pads disposed on a surface of the substrate; a strip of carbon-based nanomaterial (CNM) film, the strip having a first end and a second end, the first end in contact with the first pad and the second end in contact with the second pad, wherein said strip of CNM film consists of a plurality of single-walled carbon nanotubes (SWCNT); a sealed housing enclosing the substrate, pads, and CNM film and forming a chamber, wherein the chamber comprises a gas that becomes ionized by radiation incident on the device; and an amperometry circuit connected to the pads and configured to determine intrinsic resistance of the CNM film; wherein ions present in the chamber are detected by a change in the magnitude of said intrinsic resistance, characterised in that the plurality of single-walled carbon nanotubes (SWCNT) are deposited by template-guided fluidic assembly. an insulating substrate; first and second metallic contact pads disposed on a surface of the substrate; a strip of carbon-based nanomaterial (CNM) film, the strip having a first end and a second end, the first end in contact with the first pad and the second end in contact with the second pad, wherein said strip of CNM film consists of a plurality of single-walled carbon nanotubes (SWCNT); a sealed housing enclosing the substrate, pads, and CNM film and forming a chamber, wherein the chamber comprises a gas that becomes ionized by radiation incident on the device; and an amperometry circuit connected to the pads and configured to determine intrinsic resistance of the CNM film; wherein ions present in the chamber are detected by a change in the magnitude of said intrinsic resistance, characterised in that the plurality of single-walled carbon nanotubes (SWCNT) are deposited by template-guided fluidic assembly.
A reusable urinary catheter product , comprising: a case comprising a body and a re-closable cap , the body defining a first compartment and a second compartment , the first compartment and second compartment being separated by a barrier that allows the passage of sterilizing light; a urinary catheter located in the first compartment ; and a sterilizing light source located in the second compartment , wherein sterilizing light emitted from the light source passes through the barrier and into the second compartment. a case comprising a body and a re-closable cap , the body defining a first compartment and a second compartment , the first compartment and second compartment being separated by a barrier that allows the passage of sterilizing light; a urinary catheter located in the first compartment ; and a sterilizing light source located in the second compartment , wherein sterilizing light emitted from the light source passes through the barrier and into the second compartment.