mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous dispersion comprising (i) 40% to 98.9% water, by weight based on the weight of the aqueous dispersion, (ii) 1% to 40% hollow polymer particles, by weight based on the weight of the aqueous dispersion, wherein the hollow polymer particles comprise 0.01% to 20% polymerized units of one or more multivinyl monomer, by weight based on the weight of the hollow polymer particles, wherein the hollow polymer particles are dispersed in the water, and further wherein the hollow polymer particles comprise a core polymer and a shell polymer, wherein the amount of polymerized units of nonionic monomer in the shell polymer is 90 to 100%, by weight based on the weight of the shell polymer, and (iii) 0.1% to 20% one or more polyol, by weight based on the weight of the aqueous dispersion. (i) 40% to 98.9% water, by weight based on the weight of the aqueous dispersion, (ii) 1% to 40% hollow polymer particles, by weight based on the weight of the aqueous dispersion, wherein the hollow polymer particles comprise 0.01% to 20% polymerized units of one or more multivinyl monomer, by weight based on the weight of the hollow polymer particles, wherein the hollow polymer particles are dispersed in the water, and further wherein the hollow polymer particles comprise a core polymer and a shell polymer, wherein the amount of polymerized units of nonionic monomer in the shell polymer is 90 to 100%, by weight based on the weight of the shell polymer, and (iii) 0.1% to 20% one or more polyol, by weight based on the weight of the aqueous dispersion.
A flow cytometer with a minute measure of variation of a flow rate in a flow of a fluid, comprising: a first pump configured to flow the fluid from a first junction to a second junction at a first flow rate that comprises a measure of variation of a flow rate; and a second pump configured to flow a portion of the fluid from the second junction to the first junction at a second flow rate that is less than the first flow rate to produce a flow of the fluid at a third flow rate from the second junction with a minute measure of variation of a flow rate, wherein the first pump, first junction, second junction, and second pump define a fluidic circuit wherein the fluid is flowed at the first flow rate in a first fluid pathway between the first junction and the second junction and wherein the fluid is flowed at the second flow rate in a second fluid pathway between the second junction and the first junction, wherein the fluid flowing at the third flow rate enters a detection region, and wherein the detection region comprises a flow cell . a first pump configured to flow the fluid from a first junction to a second junction at a first flow rate that comprises a measure of variation of a flow rate; and a second pump configured to flow a portion of the fluid from the second junction to the first junction at a second flow rate that is less than the first flow rate to produce a flow of the fluid at a third flow rate from the second junction with a minute measure of variation of a flow rate, wherein the first pump, first junction, second junction, and second pump define a fluidic circuit wherein the fluid is flowed at the first flow rate in a first fluid pathway between the first junction and the second junction and wherein the fluid is flowed at the second flow rate in a second fluid pathway between the second junction and the first junction, wherein the fluid flowing at the third flow rate enters a detection region, and wherein the detection region comprises a flow cell .
A fluid compensated downhole connection system comprising: a. at least one connector housing (216; 250; 412; 416) having an inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424); b. one or more electrical conduits (210; 410) having an internal annular space surrounding an electrical wire/cable , a first conduit end and a second conduit end, the first conduit end being connected to the housing (216; 250; 412; 416), wherein the conduit annular space is in fluid communication with the housing inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424), the conduit annular space and housing inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424) defining a fluid flow path; c. a dielectric fluid port in fluid communication with the inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424) for introducing a dielectric fluid into the fluid path, the dielectric fluid creating an internal fluid pressure greater than an ambient external pressure; and d. a bellows (208; 508) having first and second ends, and an interior chamber , the first bellows end being connected to the connector housing (216; 230; 412; 416) in fluid communication with the housing inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424), the bellows second end being exposed to downhole wellbore fluid pressure and capable of reacting to the wellbore pressure to cause the bellows (208; 508) to provide a compensating adjustment to the internal fluid pressure, wherein the bellows (208; 508) is configured to maintain the internal fluid pressure greater than the ambient external pressure. a. at least one connector housing (216; 250; 412; 416) having an inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424); b. one or more electrical conduits (210; 410) having an internal annular space surrounding an electrical wire/cable , a first conduit end and a second conduit end, the first conduit end being connected to the housing (216; 250; 412; 416), wherein the conduit annular space is in fluid communication with the housing inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424), the conduit annular space and housing inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424) defining a fluid flow path; c. a dielectric fluid port in fluid communication with the inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424) for introducing a dielectric fluid into the fluid path, the dielectric fluid creating an internal fluid pressure greater than an ambient external pressure; and d. a bellows (208; 508) having first and second ends, and an interior chamber , the first bellows end being connected to the connector housing (216; 230; 412; 416) in fluid communication with the housing inside chamber (230; 270a,b,c; 278; 280; 282; 284; 424), the bellows second end being exposed to downhole wellbore fluid pressure and capable of reacting to the wellbore pressure to cause the bellows (208; 508) to provide a compensating adjustment to the internal fluid pressure, wherein the bellows (208; 508) is configured to maintain the internal fluid pressure greater than the ambient external pressure.
A method for providing a temperature value of a patient and for storing patient profile data associated with a patient profile, the method comprising: providing a thermometer comprising: at least a sensor for obtaining a temperature reading from a patient and generating a corresponding sensor signal; a computation circuit coupled to the sensor and configured to receive the sensor signal and compute a corresponding temperature value; and a wireless communication circuit coupled to the computation circuit ; providing an external device with an application program configured to store patient profile data associated with a patient profile; establishing a wireless communications link between the wireless communication circuit and the computation circuit of the thermometer and the external device, utilizing the wireless communications link to obtain at least the temperature reading from the thermometer ; associating the temperature reading with a patient profile , wherein the patient profile is stored on the external device ; and utilizing the temperature reading to present a corresponding temperature value and associated patient profile information on a display , wherein the display is on the external device separate from the thermometer . providing a thermometer comprising: at least a sensor for obtaining a temperature reading from a patient and generating a corresponding sensor signal; a computation circuit coupled to the sensor and configured to receive the sensor signal and compute a corresponding temperature value; and a wireless communication circuit coupled to the computation circuit ; at least a sensor for obtaining a temperature reading from a patient and generating a corresponding sensor signal; a computation circuit coupled to the sensor and configured to receive the sensor signal and compute a corresponding temperature value; and a wireless communication circuit coupled to the computation circuit ; providing an external device with an application program configured to store patient profile data associated with a patient profile; establishing a wireless communications link between the wireless communication circuit and the computation circuit of the thermometer and the external device, utilizing the wireless communications link to obtain at least the temperature reading from the thermometer ; associating the temperature reading with a patient profile , wherein the patient profile is stored on the external device ; and utilizing the temperature reading to present a corresponding temperature value and associated patient profile information on a display , wherein the display is on the external device separate from the thermometer .
Device for transporting containers, preferably in a beverage filling system, comprising a transport wheel , which comprises: a central connection which is configured to fasten the transport wheel to a central rotational shaft, so that a rotation of the central rotational shaft about the axis of rotation (A) thereof is able to be transmitted to the transport wheel ; multiple discs which are concentrically stacked on top of the other relative to the axis of rotation (A) in the axial direction and which in each case have at least one recess , which jointly form a receiving region which is provided on an outer circumference (U) of the transport wheel and which is configured to receive at least partially a container, wherein at least one of the discs is a fixed disc which is fixed via a supporting structure relative to the connection , and at least one of the discs is an adjustment disc which is rotatably mounted about the axis of rotation (A) relative to the fixed disc ; and an adjustment mechanism which is configured to rotate the adjustment disc by an adjustment angle relative to the fixed disc , whereby the size of the receiving region is adjustable, characterized in that the transport wheel comprises exactly three discs having two fixed discs and an adjustment disc , wherein the adjustment disc , when viewed in the axial direction of the axis of rotation (A), is arranged between the two fixed discs . a central connection which is configured to fasten the transport wheel to a central rotational shaft, so that a rotation of the central rotational shaft about the axis of rotation (A) thereof is able to be transmitted to the transport wheel ; multiple discs which are concentrically stacked on top of the other relative to the axis of rotation (A) in the axial direction and which in each case have at least one recess , which jointly form a receiving region which is provided on an outer circumference (U) of the transport wheel and which is configured to receive at least partially a container, wherein at least one of the discs is a fixed disc which is fixed via a supporting structure relative to the connection , and at least one of the discs is an adjustment disc which is rotatably mounted about the axis of rotation (A) relative to the fixed disc ; and an adjustment mechanism which is configured to rotate the adjustment disc by an adjustment angle relative to the fixed disc , whereby the size of the receiving region is adjustable, characterized in that the transport wheel comprises exactly three discs having two fixed discs and an adjustment disc , wherein the adjustment disc , when viewed in the axial direction of the axis of rotation (A), is arranged between the two fixed discs .
A method of making a guide rail for an elevator system , comprising: providing a metallic guide rail having: a base portion ; and a blade portion extending from the base portion , the blade portion including one or more guide surfaces ; applying a protective layer to the guide rail for corrosion protection; and securing the protective layer to the guide rail to seal the guide surfaces from corrosive elements, while not securing the protective layer to the guide surfaces ; wherein the protective layer is longer than the guide rail ; the protective layer being characterized in that it is formed as a sheet with an adhesive backing located at a perimeter of the protective layer ; and the method is further characterized in that the protective layer is folded over the blade portion so that at each longitudinal end of the guide rail the adhesive backing at one side of the guide rail is adhered to the adhesive backing at the other side of the guide rail . providing a metallic guide rail having: a base portion ; and a blade portion extending from the base portion , the blade portion including one or more guide surfaces ; a base portion ; and a blade portion extending from the base portion , the blade portion including one or more guide surfaces ; applying a protective layer to the guide rail for corrosion protection; and securing the protective layer to the guide rail to seal the guide surfaces from corrosive elements, while not securing the protective layer to the guide surfaces ; wherein the protective layer is longer than the guide rail ; the protective layer being characterized in that it is formed as a sheet with an adhesive backing located at a perimeter of the protective layer ; and the method is further characterized in that the protective layer is folded over the blade portion so that at each longitudinal end of the guide rail the adhesive backing at one side of the guide rail is adhered to the adhesive backing at the other side of the guide rail .
A support structure for use during vehicle measurement and ADAS calibration procedures, comprising: a base ; a front column mounted on said base; a rear column mounted on said base, said rear column spaced rearward from said front column; a bridge member coupling a top of said front column to a top of said rear column; and a mounting structure carrying an instrumentation crossbeam , said mounting structure supported for vertical movement along a forward face of said front column, said mounting structure operatively coupled to a vertically movable counterweight carried by said rear column. a base ; a front column mounted on said base; a rear column mounted on said base, said rear column spaced rearward from said front column; a bridge member coupling a top of said front column to a top of said rear column; and a mounting structure carrying an instrumentation crossbeam , said mounting structure supported for vertical movement along a forward face of said front column, said mounting structure operatively coupled to a vertically movable counterweight carried by said rear column.
A virus comprising (i) a genome engineered to express a nucleic acid encoding a chimeric influenza virus hemagglutinin (HA) polypeptide or (ii) the chimeric influenza virus HA polypeptide, said chimeric influenza virus HA polypeptide comprising an HA stem domain and an HA globular head domain, wherein the HA globular head domain is from a different influenza virus strain or subtype than the influenza virus strain or subtype of the HA stem domain, wherein (a) the HA stem domain comprises (i) an HA1 N-terminal stem segment, wherein the HA1 N-terminal stem segment consists of amino acid residues HA1 N-term through A p ; (ii) an HA1 C-terminal stem segment, wherein the HA1 C-terminal stem segment consists of amino acid residues A q through HA1 C-term ; and (iii) an HA2 stem domain; and (b) the HA globular head domain comprises the amino acid residues between A p and A q of an HA1 domain; and wherein HA1 N-term is the N-terminal amino acid of a mature HAO protein lacking a signal peptide; wherein HA1 C-term is the C-terminal amino acid of an HA1 domain; A p is the Cys that corresponds to amino acid position 52 of an HA1 domain using H3 numbering; and wherein A q is the Cys that corresponds to amino acid position 277 of an HA1 domain using H3 numbering. (a) the HA stem domain comprises (i) an HA1 N-terminal stem segment, wherein the HA1 N-terminal stem segment consists of amino acid residues HA1 N-term through A p ; (ii) an HA1 C-terminal stem segment, wherein the HA1 C-terminal stem segment consists of amino acid residues A q through HA1 C-term ; and (iii) an HA2 stem domain; and (b) the HA globular head domain comprises the amino acid residues between A p and A q of an HA1 domain;
A light emitting device comprising: at least one light source , and a light guide unit having a center axis , comprising at least a first light guide and a second light guide each comprising a light input end surface arranged to, when in operation, receive light emitted from said at least one light source and a light output end surface arranged opposite said light input end surface, said light guide unit is ring-shaped seen in a cross section extending perpendicular to the center axis , at least a part of said first light guide and said second light guide being bent in an outward direction with respect to the central axis in a bending radius R in between the light input end surface and the light output end surface near said light output end surface, at least said first light guide of said light guide unit being ring-shaped in cross section, and said first light guide and said second light guide of said light guide unit being arranged in a nested relationship. at least one light source , and a light guide unit having a center axis , comprising at least a first light guide and a second light guide each comprising a light input end surface arranged to, when in operation, receive light emitted from said at least one light source and a light output end surface arranged opposite said light input end surface, said light guide unit is ring-shaped seen in a cross section extending perpendicular to the center axis , at least a part of said first light guide and said second light guide being bent in an outward direction with respect to the central axis in a bending radius R in between the light input end surface and the light output end surface near said light output end surface, at least said first light guide of said light guide unit being ring-shaped in cross section, and said first light guide and said second light guide of said light guide unit being arranged in a nested relationship.
Method for training an adaptive system in order to predict a specified traffic situation which a motor vehicle is entering and/or is currently experiencing by - providing a plurality of sensor data (9 to 16) as input data for the adaptive system with respect to the specified traffic situation, wherein the plurality of sensor data (9 to 16) are provided by sensors inside and/or outside the motor vehicle , - wherein, for the plurality of sensor data (9 to 16), data from sensors located outside a motor vehicle are provided via broadcasting or the Internet, or - for the plurality of sensor data (9 to 16), data from sensors outside the motor vehicle , which are permanently installed on traffic routes, are provided, and - wherein the adaptive system is based on a neural network, - learning the prediction of the specified traffic situation on the basis of at least first sensor data of the plurality of sensor data (9 to 16), and - learning the prediction of the specified traffic situation also on the basis of the plurality of sensor data (9 to 16) without the first sensor data, wherein during the learning of the prediction, the first sensor data are randomly deactivated by the neural network for a certain period of time, so that the case in which the specified traffic situation is present but the first sensor data are not available is intentionally learnt. - providing a plurality of sensor data (9 to 16) as input data for the adaptive system with respect to the specified traffic situation, wherein the plurality of sensor data (9 to 16) are provided by sensors inside and/or outside the motor vehicle , - wherein, for the plurality of sensor data (9 to 16), data from sensors located outside a motor vehicle are provided via broadcasting or the Internet, or - for the plurality of sensor data (9 to 16), data from sensors outside the motor vehicle , which are permanently installed on traffic routes, are provided, and - wherein the adaptive system is based on a neural network, - learning the prediction of the specified traffic situation on the basis of at least first sensor data of the plurality of sensor data (9 to 16), and - learning the prediction of the specified traffic situation also on the basis of the plurality of sensor data (9 to 16) without the first sensor data, wherein during the learning of the prediction, the first sensor data are randomly deactivated by the neural network for a certain period of time, so that the case in which the specified traffic situation is present but the first sensor data are not available is intentionally learnt.
Assembly for securing a bed occupant against falling out of a bed, in particular a nursing bed, - wherein the securing assembly comprises at least one telescopic rail guide having a first guide means , a second guide means and a third guide means , and - wherein the first guide means and the second guide means are linearly displaceable relative to each other in a first direction, and the second guide means and the third guide means are also linearly displaceable relative to each other in the first direction, - wherein the securing assembly has at least one synchronising mechanism which synchronises a displacement of the first guide means relative to the second guide means and vice versa and a displacement of the second guide means relative to the third guide means and vice versa in the first direction and in a direction opposite to the first direction, characterised in that the synchronising mechanism - has at least a first rack , a second rack and a gear drive which meshes the first rack and the second rack , or - has a first wheel , a second wheel and a traction element which is guided over the first and the second wheel . - wherein the securing assembly comprises at least one telescopic rail guide having a first guide means , a second guide means and a third guide means , and - wherein the first guide means and the second guide means are linearly displaceable relative to each other in a first direction, and the second guide means and the third guide means are also linearly displaceable relative to each other in the first direction, - wherein the securing assembly has at least one synchronising mechanism which synchronises a displacement of the first guide means relative to the second guide means and vice versa and a displacement of the second guide means relative to the third guide means and vice versa in the first direction and in a direction opposite to the first direction, characterised in that the synchronising mechanism - has at least a first rack , a second rack and a gear drive which meshes the first rack and the second rack , or - has a first wheel , a second wheel and a traction element which is guided over the first and the second wheel .