mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a data set from at least one first entity supplying the data set to at least one second entity aggregating the data set wherein the data set includes at least one identifier identifying at least one user of the first entity, at least one event data attribute containing user event information and at least one user class attribute containing user related data, the method comprises the steps of: a. a first encryption of the at least one identifier on the basis of an encryption key which is only known to the first entity to obtain a single encrypted identifier, b. adding a number of random characters defining a character string to the single encrypted identifier, c. a second encryption of the result according to step b. by executing an asymmetric key encryption method to obtain a double encrypted identifier, and wherein the method is performed separately for user class attributes and event data attributes by different processes such that in a first process the identifier is encrypted by applying the steps a-c wherein said double encrypted identifier is transmitted in combination with event data attributes to the at least one second entity and in a second process the same identifier is encrypted by applying the steps a-c and transmitted together with user class attributes to the at least one second entity, wherein both processes rely on a different random character string but revert to the same encryption key used for the first encryption. a. a first encryption of the at least one identifier on the basis of an encryption key which is only known to the first entity to obtain a single encrypted identifier, b. adding a number of random characters defining a character string to the single encrypted identifier, c. a second encryption of the result according to step b. by executing an asymmetric key encryption method to obtain a double encrypted identifier, and
Device for styling or obtaining different shapes of a user's hair, said device comprising components capable of receiving said hair on the surface, these components being tubular elements each having an elongated body capable of acting directly together with the hair wound about said elongated body in order to provide it with a desired shape, said tubular elements acting together with a holding member capable of attaching these tubular elements together and to the user's hair, said holding member having projecting holding bodies capable of acting together with an axial hole in each tubular element so as to attach it to said holding member and a body capable of containing a lock of hair such as to secure said device to the hair, characterised in that said body of the holding member comprises a first part and a second part which can overlap each other and which can be mutually attached together in that overlapped position, said parts having projecting elements capable of interpenetrating each other when those parts are closed against each other after a lock of hair has been inserted between them, the interpenetration of said projecting elements securing the hair between them and allowing device to be secured to said lock of hair, the user's hair being wound around said tubular elements in such a way as to impart a desired set to them.
A device for expanded implantation within a heart chamber that is in fluid communication with an annulus comprising an annular plane and with a native valve having leaflets, the device comprising: a base section comprising a lower surface that is at least partially disposed on the annular plane, the lower surface comprising a raised portion spaced above the lower surface of the base section and the annular plane; an atrial dome section in pressured and frictional engagement with the chamber roof when the device is expanded and implanted; an intermediate section operatively attached to the base section and operatively attached to the atrial dome section , the intermediate section positioned below the atrial dome section within the heart chamber when the device is expanded and implanted; and a central cylinder valve support comprising a lower surface , the central cylinder valve support operatively attached to the raised portion of the base section and comprising at least one prosthetic valve leaflet operatively attached therein, the lower surface of the central cylinder valve support spaced above the lower surface of the base section and the annular plane. a base section comprising a lower surface that is at least partially disposed on the annular plane, the lower surface comprising a raised portion spaced above the lower surface of the base section and the annular plane; an atrial dome section in pressured and frictional engagement with the chamber roof when the device is expanded and implanted; an intermediate section operatively attached to the base section and operatively attached to the atrial dome section , the intermediate section positioned below the atrial dome section within the heart chamber when the device is expanded and implanted; and a central cylinder valve support comprising a lower surface , the central cylinder valve support operatively attached to the raised portion of the base section and comprising at least one prosthetic valve leaflet operatively attached therein, the lower surface of the central cylinder valve support spaced above the lower surface of the base section and the annular plane.
A multi-channel light measurement method, comprising: passing light emissions from a light source through a test sample contained in a vessel ; receiving light emissions from the light source and passed through the test sample over a plurality of wavelength sub-ranges at an array of photodetectors wherein each photodetector in the array receives light emissions over a discrete wavelength sub-range; providing a multi-channel integrate and hold circuit comprising multiple channels, wherein each channel corresponds to a discrete photodetector array in the array of photodetectors and comprises a variable integrate and hold circuit ; and adjusting a sampling factor for at least some of the channels based on a measured reference light intensity for at least some of the plurality of wavelength sub-ranges to arrive at channel reference values for at least some of the channels. passing light emissions from a light source through a test sample contained in a vessel ; receiving light emissions from the light source and passed through the test sample over a plurality of wavelength sub-ranges at an array of photodetectors wherein each photodetector in the array receives light emissions over a discrete wavelength sub-range; providing a multi-channel integrate and hold circuit comprising multiple channels, wherein each channel corresponds to a discrete photodetector array in the array of photodetectors and comprises a variable integrate and hold circuit ; and adjusting a sampling factor for at least some of the channels based on a measured reference light intensity for at least some of the plurality of wavelength sub-ranges to arrive at channel reference values for at least some of the channels.
A method of supported liquid extraction (SLE), characterized in that the adsorption of at least one analyte to a solid phase from a sample comprising urine; saliva; whole blood; or blood serum is performed in the presence of non-buffering salt, wherein the solid phase comprises diatomaceous earth.
A peak cut system comprising: a load ; a power system which is adapted to carry out power supply to said load; a power-generating device which is adapted to generate power and to supply the generated power to said load; a power storage device which is adapted to carry out charge and discharge with respect to said load; and a control unit which is adapted to control the power supply to said load, wherein said control unit is adapted to execute a first peak cut process which carries out peak cut with respect to power received from said power system by executing said discharge from said power storage device, and is adapted to execute a second peak cut process which carries out said peak cut by carrying out said power generation by said power-generating device only when a predetermined amount of peak cut power cannot be achieved only by said discharge from said power storage device characterized in that said control unit is adapted to predict power demand, when the prediction value of the power demand reaches a previously-set first target value at a first timing, said control unit is adapted to start to execute said first peak cut process at the first timing; wherein when the prediction value of the power demand is lowered to a previously-set second target value at a second timing, said control unit is adapted to stop said discharge from said power storage device at the second timing, and the second target value is smaller than the first target value. a load ; a power system which is adapted to carry out power supply to said load; a power-generating device which is adapted to generate power and to supply the generated power to said load; a power storage device which is adapted to carry out charge and discharge with respect to said load; and a control unit which is adapted to control the power supply to said load, wherein said control unit is adapted to execute a first peak cut process which carries out peak cut with respect to power received from said power system by executing said discharge from said power storage device, and is adapted to execute a second peak cut process which carries out said peak cut by carrying out said power generation by said power-generating device only when a predetermined amount of peak cut power cannot be achieved only by said discharge from said power storage device characterized in that said control unit is adapted to predict power demand, when the prediction value of the power demand reaches a previously-set first target value at a first timing, said control unit is adapted to start to execute said first peak cut process at the first timing; wherein when the prediction value of the power demand is lowered to a previously-set second target value at a second timing, said control unit is adapted to stop said discharge from said power storage device at the second timing, and the second target value is smaller than the first target value.
Alpha thymosin peptide for use in a method for treating sepsis in a human, the method comprising administering a regimen of alpha thymosin peptide to the human, optionally the sepsis is due to bacterial, fungal or viral infection, wherein the administration does not contain a protease inhibitor, and wherein the treatment reduces mortality.
An implant delivery system , the implant delivery system comprising: a delivery shaft including a proximal portion, a distal portion and a lumen extending therebetween; a frame detachably coupled to the distal portion of the delivery shaft; and a tack member coupled to the frame; wherein the tack member includes a shaft having a circumferential surface characterised in that the tack includes one or more protrusions extending radially away from the circumferential surface. a delivery shaft including a proximal portion, a distal portion and a lumen extending therebetween; a frame detachably coupled to the distal portion of the delivery shaft; and a tack member coupled to the frame; wherein the tack member includes a shaft having a circumferential surface characterised in that the tack includes one or more protrusions extending radially away from the circumferential surface.
A compound of formula (I) wherein: R 1 is selected from -S(O) n R 6 , -S(O) n NR 7 R 8 , and - S(O)(NH)R 6 ; wherein: R 6 is: C 1-3 alkyl R 7 and R 8 are each -H; and n is 1 or 2; R 2 and R 3 are independently selected from C 1-3 alkyl; cyclopropyl; and methoxy; R 4 is C 1-6 alkyl, optionally substituted with one or two groups independently selected from C 3-6 cycloalkyl; halogen; -CF 3 ; and -CN; R 5 is selected from C 1-3 alkyl, optionally substituted with 1 to 3 fluoro groups; -CH 2 OH; -CH 2 OC(O)C 1-3 alkyl; and -OC 1-3 alkyl; W is selected from pyridinyl; pyrimidinyl; pyrizinyl; phenyl; and piperidinyl; and the pharmaceutically acceptable salts thereof. R 1 is selected from -S(O) n R 6 , -S(O) n NR 7 R 8 , and - S(O)(NH)R 6 ; wherein: R 6 is: C 1-3 alkyl R 7 and R 8 are each -H; and n is 1 or 2; R 6 is: C 1-3 alkyl R 7 and R 8 are each -H; and n is 1 or 2; R 2 and R 3 are independently selected from C 1-3 alkyl; cyclopropyl; and methoxy; R 4 is C 1-6 alkyl, optionally substituted with one or two groups independently selected from C 3-6 cycloalkyl; halogen; -CF 3 ; and -CN; R 5 is selected from C 1-3 alkyl, optionally substituted with 1 to 3 fluoro groups; -CH 2 OH; -CH 2 OC(O)C 1-3 alkyl; and -OC 1-3 alkyl; W is selected from pyridinyl; pyrimidinyl; pyrizinyl; phenyl; and piperidinyl; and the pharmaceutically acceptable salts thereof.
A method in a network node for managing interruptions to Wide Area Network, WAN, operation of a wireless device , wherein the wireless device provides Proximity Services, ProSe, over at least two carriers , the method comprising: determining a configuration of the wireless device for ProSe operation such that an aggregated interruption to the WAN operation of the wireless device is below an allowed interruption value, wherein determining the configuration comprises adapting a ProSe periodicity of at least one of the at least two carriers configured for ProSe operation at the wireless device to an adapted value as a function of a total number of carriers configured for ProSe operation at the wireless device.
A motorized door assembly comprising: a door positioned between opposing jambs of a door frame and movable between an open position and a closed position, wherein the door is pivotable about a pivot axis extending across the opposing jambs ; and a motor assembly mounted adjacent to the door , the motor assembly comprising: an electric motor ; a plurality of drive gears ; and a driven shaft operably connected to the door to pivot the door about the pivot axis ; characterized in that the motor assembly further comprises a slip clutch , wherein the slip clutch includes a clutch plate that is slideable along the driven shaft , a drive plate driven by the electric motor via the drive gears , and a clutch spring urging the clutch plate into engagement with the drive plate , the clutch plate having a profiled face and the drive plate having a counter-profiled face for engagement with the profiled face. a motor assembly mounted adjacent to the door , the motor assembly comprising: an electric motor ; a plurality of drive gears ; and a driven shaft operably connected to the door to pivot the door about the pivot axis ; characterized in that the motor assembly further comprises a slip clutch , an electric motor ; a plurality of drive gears ; and a driven shaft operably connected to the door to pivot the door about the pivot axis ; characterized in that the motor assembly further comprises a slip clutch , wherein the slip clutch includes a clutch plate that is slideable along the driven shaft , a drive plate driven by the electric motor via the drive gears , and a clutch spring urging the clutch plate into engagement with the drive plate , the clutch plate having a profiled face and the drive plate having a counter-profiled face for engagement with the profiled face.
A laminate comprising a substrate layer and a fibrous layer , each layer having an internal side and an external side, wherein the internal side of one layer faces the internal side of the other layer, the fibrous layer comprising cellulose fibers and irregularly shaped lumps of hotmelt material , wherein these lumps of hotmelt material at least partially bond the cellulose fibers together, thus providing integrity to the fibrous layer.
An antenna unit , comprising: an antenna ; at least one radio unit ; and at least one interconnect including first and second mating connectors , said first connector being configured to be electrically and mechanically coupled to said antenna and said second connector being configured to be electrically and mechanically coupled to said at least one radio unit , wherein said first connector having radial and axial float for blind mating of said first and second mating connectors , characterised in that said first connector includes a mounting body , a housing , and a shroud , said mounting body mounts said first connector to said antenna , said shroud surrounds a mating interface of said housing , and a space between said shroud and said mounting body providing the radial float,and in that said mounting body and said shroud are each formed of a dielectric material. an antenna ; at least one radio unit ; and at least one interconnect including first and second mating connectors , said first connector being configured to be electrically and mechanically coupled to said antenna and said second connector being configured to be electrically and mechanically coupled to said at least one radio unit ,
A wireless charging device , wherein the wireless charging device comprises a housing , an induction coil, a ferrite , a printed circuit board , PCB, and a fan ; the housing comprises a first surface, a second surface and a bottom surface, the second surface connects the first surface and the bottom surface, a protrusion is disposed on the first surface, and the protrusion is configured to support a to-be-charged device; the induction coil is attached to the ferrite, and the PCB, and the fan are accommodated inside the housing, the ferrite is disposed close to the first surface; at least one first air guiding opening and at least one second air guiding opening are disposed on the housing, the at least one second air guide opening is located on the second surface and close to the bottom surface; a groove is provided on the first surface, the groove is an annular groove, a hole is disposed on the annular groove to serve as the first air guiding opening, and the annular groove is placed close to the ferrite; and the protrusion is configured to: support the to-be-charged device, and leave a gap between the to-be-charged device and the first surface when the to-be-charged device is installed on the wireless charging device. the housing comprises a first surface, a second surface and a bottom surface, the second surface connects the first surface and the bottom surface, a protrusion is disposed on the first surface, and the protrusion is configured to support a to-be-charged device; the induction coil is attached to the ferrite, and the PCB, and the fan are accommodated inside the housing, the ferrite is disposed close to the first surface; at least one first air guiding opening and at least one second air guiding opening are disposed on the housing, the at least one second air guide opening is located on the second surface and close to the bottom surface; a groove is provided on the first surface, the groove is an annular groove, a hole is disposed on the annular groove to serve as the first air guiding opening, and the annular groove is placed close to the ferrite; and the protrusion is configured to: support the to-be-charged device, and leave a gap between the to-be-charged device and the first surface when the to-be-charged device is installed on the wireless charging device.
An electric actuator , comprising: a motor ; and a motion conversion mechanism configured to convert a rotary motion generated through drive by the motor to a linear motion in a direction parallel to an output shaft of the motor , wherein the motion conversion mechanism comprises a movable part , which is arranged in parallel with the output shaft and is configured to perform the linear motion, characterized in that a boot made of rubber or resin is arranged between the movable part and a fixed system around the movable part , and a magnet is arranged in a portion of the movable part covered with the boot , wherein a magnetic sensor configured to detect a position of the magnet in a linear motion direction is arranged around the boot , wherein the magnet is mounted to the movable part through intermediation of a magnet holder configured to hold the magnet , and the magnetic sensor is mounted to a boot cover configured to cover a periphery of the boot , and wherein both of the magnet holder and the boot cover are made of a nonmagnetic material. a motor ; and a motion conversion mechanism configured to convert a rotary motion generated through drive by the motor to a linear motion in a direction parallel to an output shaft of the motor , wherein the motion conversion mechanism comprises a movable part , which is arranged in parallel with the output shaft and is configured to perform the linear motion, a boot made of rubber or resin is arranged between the movable part and a fixed system around the movable part , and a magnet is arranged in a portion of the movable part covered with the boot , wherein a magnetic sensor configured to detect a position of the magnet in a linear motion direction is arranged around the boot , wherein the magnet is mounted to the movable part through intermediation of a magnet holder configured to hold the magnet , and the magnetic sensor is mounted to a boot cover configured to cover a periphery of the boot , and wherein both of the magnet holder and the boot cover are made of a nonmagnetic material.
A cylindrical battery, comprising: a battery housing ; a cell , which is arranged in the battery housing , and comprises a cell body and a tab portion , wherein the tab portion is extended from at least one side of the cell body ; a first insulating film , which is arranged on an outer surface of the cell body , and is fixedly connected with the cell ; a second insulating film , which is arranged on the outer surface of the cell body , and covers at least a portion of the first insulating film , and is fixedly connected with the first insulating film , wherein one end of the second insulating film is not lower than an end surface of the cell body where the tab portion is arranged, and the other end of the second insulating film overlaps the first insulating film so that a portion of the second insulating film overlaps the first insulating film , wherein the first insulating film is adhesively connected to the cell , and/or the second insulating film is adhesively connected to the first insulating film , wherein an overlapping area of the second insulating film and the first insulating film accounts for 10% to 40% of an outer circumferential surface area of the cell body , wherein an overlapping width of the second insulating film and the first insulating film is 5 mm to 30 mm, wherein a thickness of the first insulating film is 0.02 mm to 0.05 mm, and wherein the first insulating film is a first adhesive tape, and the second insulating film is a second adhesive tape. a battery housing ; a cell , which is arranged in the battery housing , and comprises a cell body and a tab portion , wherein the tab portion is extended from at least one side of the cell body ; a first insulating film , which is arranged on an outer surface of the cell body , and is fixedly connected with the cell ; a second insulating film , which is arranged on the outer surface of the cell body , and covers at least a portion of the first insulating film , and is fixedly connected with the first insulating film , wherein one end of the second insulating film is not lower than an end surface of the cell body where the tab portion is arranged, and the other end of the second insulating film overlaps the first insulating film so that a portion of the second insulating film overlaps the first insulating film , wherein the first insulating film is adhesively connected to the cell , and/or the second insulating film is adhesively connected to the first insulating film , wherein an overlapping area of the second insulating film and the first insulating film accounts for 10% to 40% of an outer circumferential surface area of the cell body , wherein an overlapping width of the second insulating film and the first insulating film is 5 mm to 30 mm, wherein a thickness of the first insulating film is 0.02 mm to 0.05 mm, and wherein the first insulating film is a first adhesive tape, and the second insulating film is a second adhesive tape.