mhurhangee/ep-ind-claims huggingface dataset:
A device for monitoring patient compliance of a medication, comprising: a substrate suitable for attaching and conforming to a bottle container containing medicine including a fluid, wherein the substrate includes a mechanically flexible and an electrically insulative material; a data acquisition unit including a sensor and a signal processing circuit formed on the substrate, wherein the sensor is operable, when the device is attached to a body of the bottle container, to transduce an occurrence of the medicine dispensing from the bottle container into an electrical signal, and the signal processing circuit is operable to amplify the electrical signal, wherein the sensor includes a pressure sensor; a data processing unit including a processor and a memory formed on the substrate and in communication with the data acquisition unit to process the amplified electrical signal as data; and a communications unit formed on the substrate and in communication with the data processing unit to wirelessly transmit the processed data to a remote device, wherein the pressure sensor includes a force sensitive resistor or a strain gauge, and wherein the pressure sensor is operable to produce the electrical signal corresponding to an amount of pressure change caused by squeezing the body of the bottle container, and wherein the sensor, the signal processing unit, the data processing unit 110, and the communications unit are implemented in a single device package. a substrate suitable for attaching and conforming to a bottle container containing medicine including a fluid, wherein the substrate includes a mechanically flexible and an electrically insulative material; a data acquisition unit including a sensor and a signal processing circuit formed on the substrate, wherein the sensor is operable, when the device is attached to a body of the bottle container, to transduce an occurrence of the medicine dispensing from the bottle container into an electrical signal, and the signal processing circuit is operable to amplify the electrical signal, wherein the sensor includes a pressure sensor; a data processing unit including a processor and a memory formed on the substrate and in communication with the data acquisition unit to process the amplified electrical signal as data; and a communications unit formed on the substrate and in communication with the data processing unit to wirelessly transmit the processed data to a remote device, wherein the pressure sensor includes a force sensitive resistor or a strain gauge, and wherein the pressure sensor is operable to produce the electrical signal corresponding to an amount of pressure change caused by squeezing the body of the bottle container, and wherein the sensor, the signal processing unit, the data processing unit 110, and the communications unit are implemented in a single device package.
An apparatus for processing a ultra-wide-band, UWB, signal, comprising: a plurality of RF amplifiers arranged in a cascade structure, the plurality of RF amplifiers configured to receive and amplify a UWB signal, the UWB signal comprising an envelope signal modulated with a radio frequency, RF, carrier signal; characterised in further comprising a plurality of baseband blocks, each of the plurality of baseband blocks is coupled to a corresponding one of the plurality of RF amplifiers, at least one of the baseband blocks configured to tap an output signal from the corresponding one of the plurality of RF amplifiers; and a processor coupled to the plurality of baseband blocks, the processor configured to process an output signal from at least one of the plurality of baseband blocks to convert the envelope signal into a digital domain. a plurality of RF amplifiers arranged in a cascade structure, the plurality of RF amplifiers configured to receive and amplify a UWB signal, the UWB signal comprising an envelope signal modulated with a radio frequency, RF, carrier signal; characterised in further comprising a plurality of baseband blocks, each of the plurality of baseband blocks is coupled to a corresponding one of the plurality of RF amplifiers, at least one of the baseband blocks configured to tap an output signal from the corresponding one of the plurality of RF amplifiers; and a processor coupled to the plurality of baseband blocks, the processor configured to process an output signal from at least one of the plurality of baseband blocks to convert the envelope signal into a digital domain.
A self-adjusting strap system of a backpack, suitcase or briefcase having shoulder pads, the self-adjusting strap system comprising: two double rings made of aluminum, brass or steel, each one sewn to a corresponding fabric connector, located at the bottom of the shoulder pads of the backpack, suitcase or briefcase; a first polymer panel having two oval holes, one hole at each end of the panel, two oval aluminium, brass or steel grommets attached to the two oval holes; a nylon or polyester strap attaches the two double rings, the first polymer panel and the two grommets, such that the strap goes through one of the two double rings and inserted into one of the two grommets, and thereafter passes through one of the two oval holes in the first polymer panel, surrounding the first polymer panel at the rear and coming out through the other of the two oval holes at the other end of the first polymer panel and thereafter inserting again into the other of the two grommets and crossing through the other of the two double rings; a second polymer panel located behind the first polymer panel; two horizontal polymer bars, parallel to each other, wherein one of the two polymer bars is at the top of the second polymer panel and another one of the two second polymer bars is at the bottom of the first polymer panel, thereby creating a space between the two polymer panels (33 and 35) and forming an internal channel where the strap passes without friction and creates continuous tension between the shoulder pads and automatically balances the load of the backpack, suitcase or briefcase. two double rings made of aluminum, brass or steel, each one sewn to a corresponding fabric connector, located at the bottom of the shoulder pads of the backpack, suitcase or briefcase; a first polymer panel having two oval holes, one hole at each end of the panel, two oval aluminium, brass or steel grommets attached to the two oval holes; a nylon or polyester strap attaches the two double rings, the first polymer panel and the two grommets, such that the strap goes through one of the two double rings and inserted into one of the two grommets, and thereafter passes through one of the two oval holes in the first polymer panel, surrounding the first polymer panel at the rear and coming out through the other of the two oval holes at the other end of the first polymer panel and thereafter inserting again into the other of the two grommets and crossing through the other of the two double rings; a second polymer panel located behind the first polymer panel; two horizontal polymer bars, parallel to each other, wherein one of the two polymer bars is at the top of the second polymer panel and another one of the two second polymer bars is at the bottom of the first polymer panel, thereby creating a space between the two polymer panels (33 and 35) and forming an internal channel where the strap passes without friction and creates continuous tension between the shoulder pads and automatically balances the load of the backpack, suitcase or briefcase.
A method of monitoring an area underneath an autonomous vehicle, the method comprising: capturing a first topography of a ground surface underneath the autonomous vehicle with a sensor when the autonomous vehicle is stationary; storing the first topography of the ground surface in a memory prior to the autonomous vehicle being switched off; capturing a second topography of the ground surface underneath the autonomous vehicle with the sensor before the autonomous vehicle begins moving; comparing, with an electronic processor, the first topography with the second topography; when the first topography of the ground surface underneath the autonomous vehicle and the second topography of the ground surface underneath the autonomous vehicle match: enabling autonomous driving of the autonomous vehicle; and when the first topography of the ground surface underneath the autonomous vehicle and the second topography of the ground surface underneath the autonomous vehicle are different: disabling autonomous driving of the autonomous vehicle; generating a notification that autonomous driving is disabled; and sending the notification to a user of the autonomous vehicle and a remote monitoring service for the autonomous vehicle, wherein the comparing, by the electronic control unit, the first topography with the second topography includes determining a difference score indicative of an amount of differences detected between the first topography and the second topography. capturing a first topography of a ground surface underneath the autonomous vehicle with a sensor when the autonomous vehicle is stationary; storing the first topography of the ground surface in a memory prior to the autonomous vehicle being switched off; capturing a second topography of the ground surface underneath the autonomous vehicle with the sensor before the autonomous vehicle begins moving; comparing, with an electronic processor, the first topography with the second topography; when the first topography of the ground surface underneath the autonomous vehicle and the second topography of the ground surface underneath the autonomous vehicle match: enabling autonomous driving of the autonomous vehicle; and when the first topography of the ground surface underneath the autonomous vehicle and the second topography of the ground surface underneath the autonomous vehicle are different: disabling autonomous driving of the autonomous vehicle; generating a notification that autonomous driving is disabled; and sending the notification to a user of the autonomous vehicle and a remote monitoring service for the autonomous vehicle, disabling autonomous driving of the autonomous vehicle; generating a notification that autonomous driving is disabled; and sending the notification to a user of the autonomous vehicle and a remote monitoring service for the autonomous vehicle,
A system for segregating particles of interest from a sample prepared in a light-curable polymeric medium, comprising: (a) a light transparent sample plate having one or more receptacles for containing the sample, (b) one or more light sources for illuminating and/or curing the sample, (c) a liquid crystal display for selectively controlling the transmission of light to the sample, (d) a means for aligning the sample plate and the LCD with the LCD oriented between the sample and the light source, (e) a means for observing the sample plate and/or the LCD by microscopy, (f) a means for capturing images obtained from the microscopy means of (e) to obtain microscopic images of the sample plate with and without the LCD between the sample and the light source, and (g) a microprocessor and software for controlling the system, wherein the microprocessor and software for controlling the system are configured to analyze and align the images obtained from (f) to obtain a composite image to locate and identify particles of interest in the sample, the system being configured to selectively transmit or not transmit polymer-curing wavelengths of light to the curable polymeric medium at desired locations to provide an array of cured and uncured regions of the polymeric medium to selectively immobilize or not immobilize the particles of interest. (a) a light transparent sample plate having one or more receptacles for containing the sample, (b) one or more light sources for illuminating and/or curing the sample, (c) a liquid crystal display for selectively controlling the transmission of light to the sample, (d) a means for aligning the sample plate and the LCD with the LCD oriented between the sample and the light source, (e) a means for observing the sample plate and/or the LCD by microscopy, (f) a means for capturing images obtained from the microscopy means of (e) to obtain microscopic images of the sample plate with and without the LCD between the sample and the light source, and (g) a microprocessor and software for controlling the system, wherein the microprocessor and software for controlling the system are configured to analyze and align the images obtained from (f) to obtain a composite image to locate and identify particles of interest in the sample,
An article of apparel comprising: an embossed sheet formed from a two-dimensional textile material, the embossed sheet having a first surface and an opposite second surface, wherein only the second surface is embossed; a plurality of extended regions that form protrusions on the second surface; and at least one compressed region that forms an indentation in the second surface, the embossed sheet being incorporated into the article of apparel such that the extended regions face inward to form at least a portion of an interior surface of the article of apparel. an embossed sheet formed from a two-dimensional textile material, the embossed sheet having a first surface and an opposite second surface, wherein only the second surface is embossed; a plurality of extended regions that form protrusions on the second surface; and at least one compressed region that forms an indentation in the second surface, the embossed sheet being incorporated into the article of apparel such that the extended regions face inward to form at least a portion of an interior surface of the article of apparel.
A sleeve device for a headrest comprising a sleeve body to be inserted into an opening in a frame of a vehicle seat, the sleeve body comprising an inner axial passage to accommodate a rod of the headrest, the inner axial passage including an inner wall, a top end portion and a bottom end portion; a head portion; an external side; and an upper inner seat portion at the inner the wall of the top end portion of the axial passage, the upper inner seat portion for encircling an upper portion of the rod of the headrest; and an upper inner bushing retained at the upper inner seat portion, the upper inner bushing being made from an antifriction resilient plastic and soft material and comprising an inner axial opening for guiding the rod of the headrest; characterized in that the upper inner bushing is overmoulded to the upper inner seat portion.
Device for securing a fitting in a T-shaped groove of an outer fixed frame or opening panel type of joinery, comprising a clamp which is mounted on a support so as to be movable, on the one hand in rotation, between an angular mounting position and at least one other angular retaining position, by a tightening screw passing through an opening in the support, said tightening screw engaging with the clamp and said support, characterized in that it comprises retractable means for locking, at least against translation, the tightening screw relative to said support, which locking means are defined by means for retaining the tightening screw in a position that is loosened and partially pushed back outside the opening in the support, in order to hold the head of said tightening screw at a distance from an abutment face on said support, said retractable locking means constituting means for holding the clamp in abutment on a face of the support opposite the abutment face, said opposite face comprising at least one stop corresponding to retractable means for retaining said clamp in the angular mounting position.
A thermal energy recovery device comprising: an evaporator for evaporating a working medium by allowing a heating medium in a gas phase supplied from the outside and the working medium to exchange heat therebetween; a preheater for heating the working medium by allowing the heating medium flowing out of the evaporator and the working medium before flowing into the evaporator to exchange heat therebetween; an energy recovery unit for recovering energy from the working medium flowing out of the evaporator; a circulating flow path for connecting the preheater, the evaporator, and the energy recovery unit and for allowing the working medium to flow; a pump provided in the circulating flow path; a heating medium flow path for supplying the heating medium to the evaporator and the preheater; a flow adjustment unit provided in a portion on the upstream side of the evaporator within the heating medium flow path; and a control unit, characterized in that the control unit is adapted to control the flow adjustment unit so that the inflow amount of the heating medium in a gas phase to the evaporator gradually increases, in a state that the pump is stopped, until the temperature of the evaporator becomes a specified value. an evaporator for evaporating a working medium by allowing a heating medium in a gas phase supplied from the outside and the working medium to exchange heat therebetween; a preheater for heating the working medium by allowing the heating medium flowing out of the evaporator and the working medium before flowing into the evaporator to exchange heat therebetween; an energy recovery unit for recovering energy from the working medium flowing out of the evaporator; a circulating flow path for connecting the preheater, the evaporator, and the energy recovery unit and for allowing the working medium to flow; a pump provided in the circulating flow path; a heating medium flow path for supplying the heating medium to the evaporator and the preheater; a flow adjustment unit provided in a portion on the upstream side of the evaporator within the heating medium flow path; and a control unit, characterized in that the control unit is adapted to control the flow adjustment unit so that the inflow amount of the heating medium in a gas phase to the evaporator gradually increases, in a state that the pump is stopped, until the temperature of the evaporator becomes a specified value.
A system for fast handover in an optical multi-cell communication system, comprising: a plurality of access points being arranged for advertising their presence by transmitting shortened frames without a payload portion in an allocated pre-defined part of a common channel of a frame cycle of a link layer or physical layer protocol, wherein each of the shortened frames contains an identifier of the respective advertising access point; and at least one end point being arranged for searching for neighboring ones of the plurality access points to anticipate an upcoming handover by detecting an advertised shortened frame in the common channel, and for transmitting a pre-registration request for preliminary registration to a detected neighboring access point prior to deciding on a handover. a plurality of access points being arranged for advertising their presence by transmitting shortened frames without a payload portion in an allocated pre-defined part of a common channel of a frame cycle of a link layer or physical layer protocol, wherein each of the shortened frames contains an identifier of the respective advertising access point; and at least one end point being arranged for searching for neighboring ones of the plurality access points to anticipate an upcoming handover by detecting an advertised shortened frame in the common channel, and for transmitting a pre-registration request for preliminary registration to a detected neighboring access point prior to deciding on a handover.
A process for producing a coke fuel, the process comprising: heating a coker feedstock to a coking temperature to produce a heated coker feedstock; transferring the heated coker feedstock to a coking drum, wherein during transfer the heated coker feedstock undergoes thermal cracking; contacting the heated coker feedstock with a quench medium to reduce a temperature of the heated coker feedstock and produce a quenched feedstock; feeding the quenched feedstock to the coking drum; and subjecting the quenched feedstock to thermal cracking in the coking drum to (a) crack a portion of the quenched feedstock to produce a cracked vapor product, and (b) produce a coke product having a volatile combustible material concentration in the range from 13% to 50% by weight, as measured by ASTM D3175, wherein contacting the heated coker feedstock with a quench medium is performed: immediately upstream of a diverter valve for directing the quenched feedstock to the coking drum and away from a further coking drum arranged in parallel to the coking drum or downstream of the diverter valve and away from the further coking drum. heating a coker feedstock to a coking temperature to produce a heated coker feedstock; transferring the heated coker feedstock to a coking drum, wherein during transfer the heated coker feedstock undergoes thermal cracking; contacting the heated coker feedstock with a quench medium to reduce a temperature of the heated coker feedstock and produce a quenched feedstock; feeding the quenched feedstock to the coking drum; and subjecting the quenched feedstock to thermal cracking in the coking drum to (a) crack a portion of the quenched feedstock to produce a cracked vapor product, and (b) produce a coke product having a volatile combustible material concentration in the range from 13% to 50% by weight, as measured by ASTM D3175, wherein contacting the heated coker feedstock with a quench medium is performed: immediately upstream of a diverter valve for directing the quenched feedstock to the coking drum and away from a further coking drum arranged in parallel to the coking drum or downstream of the diverter valve and away from the further coking drum. immediately upstream of a diverter valve for directing the quenched feedstock to the coking drum and away from a further coking drum arranged in parallel to the coking drum or downstream of the diverter valve and away from the further coking drum.
Laboratory cup, in particular a urine cup, having a cup body, on which two supporting wings are oppositely formed consisting of two flat material blanks, which are arranged on top of each other and adhesively bonded on three sides, wherein the two flat material blanks are oppositely provided with two outer folds as well as a central fold arranged between them, characterised in that the flat material blanks are two-dimensionally bonded on two opposite sides on the sides of the outer fold opposing the central fold, whereby the two oppositely arranged wings are formed.
A composition consisting of at least one therapeutic peptide selected from the group consisting of a catalytic subunit of Protein Kinase A (PKAc) fragment or a variant PKAc fragment thereof; and a pharmaceutically acceptable carrier or excipient; wherein the PKAc fragment or variant PKAc fragment thereof consists of a peptide selected from a) SEQ ID NO: 60; and b) a peptide variant that has at least 90% identity with SEQ ID NO: 60 and is of identical size with SEQ ID NO: 60 and inhibits AKT1 and/or cell proliferation; and, c) SEQ ID NO: 56; and d) SEQ ID NO: 69; and e) SEQ ID NO: 70; and f) SEQ ID NO: 71; and g) Combined SEQ ID Nos: 32-43; and; h) Combined SEQ ID Nos: 44-55; and; i) Combined SEQ ID Nos: 56-67; and; j) Combined SEQ ID Nos: 68-79. a) SEQ ID NO: 60; and b) a peptide variant that has at least 90% identity with SEQ ID NO: 60 and is of identical size with SEQ ID NO: 60 and inhibits AKT1 and/or cell proliferation; and, c) SEQ ID NO: 56; and d) SEQ ID NO: 69; and e) SEQ ID NO: 70; and f) SEQ ID NO: 71; and g) Combined SEQ ID Nos: 32-43; and; h) Combined SEQ ID Nos: 44-55; and; i) Combined SEQ ID Nos: 56-67; and; j) Combined SEQ ID Nos: 68-79.