mhurhangee/ep-ind-claims huggingface dataset:
An extension assembly of an upper frame of a patient support deck comprising a guiding profile of the upper frame of the patient support deck arranged on at least one end of the upper frame of the patient support deck to be coupled to the extension assembly, the extension assembly comprising a telescopically moving connecting member firmly coupled to a bearing crossbar of a footboard under which a handle for controlling the extension assembly is located and where the telescopically moving connecting member slides into the guiding profile of the upper frame of the patient support deck, characterized in that the telescopically moving connecting member comprises a rocker arm in a hollow part of the telescopically moving connecting member, wherein the rocker arm comprises a latch on one end of the rocker arm, which passes through one retaining hole located on the telescopically moving connecting member and at least one retaining hole of the latch which is located in the guiding profile of the upper frame of the patient support deck, wherein the rocker arm further comprising at least one pivot, wherein the rocker arm turns over the pivot, wherein the handle is hung on an opposing end of the rocker arm, wherein the handle controls the entire extension assembly of the upper frame of the patient support deck.
An integrated flow meter and control valve including: - a flow tube providing a flow channel extending between an inlet- and an outlet opening; - a substantially watertight meter housing providing a compartment, extending from the flow tube; - a metering unit arranged inside the compartment for measuring the flow of a medium flowing through the flow channel, and - an electrical valve actuator arranged inside the compartment and adapted to control a flow control element arranged inside the flow channel, said electrical valve actuator including an electric motor connected to a valve stem via a gear train; - a control module including a wireless communication device arranged inside the compartment; and - a self-contained power supply arranged inside the compartment; characterized in that meter housing is formed as an integrated part of the flow tube with the compartment having a primary opening for insertion of the metering unit and a secondary sealable opening for insertion of the electrical valve actuator. - a flow tube providing a flow channel extending between an inlet- and an outlet opening; - a substantially watertight meter housing providing a compartment, extending from the flow tube; - a metering unit arranged inside the compartment for measuring the flow of a medium flowing through the flow channel, and - an electrical valve actuator arranged inside the compartment and adapted to control a flow control element arranged inside the flow channel, said electrical valve actuator including an electric motor connected to a valve stem via a gear train; - a control module including a wireless communication device arranged inside the compartment; and - a self-contained power supply arranged inside the compartment;
A power toothbrush, comprising: a handle portion; a driving assembly for the toothbrush located in the handle portion, wherein the handle portion has a longitudinal axis (B-B); and a motion conversion assembly which includes a drive shaft having a longitudinal axis (A-A) and an arm portion on which a brush head is mounted, characterized in that the motion conversion assembly is configured to convert a linear or slightly arcuate side-to-side motion to rotation of the drive shaft through a selected arc about its longitudinal axis (A-A), and is responsive to the driving assembly to produce a movement of the brush head, and wherein the drive shaft is tilted relative to the longitudinal axis of the handle portion at an angle (α) within such a range that the moment of inertia of the toothbrush relative to the axis of rotation of the drive shaft is sufficiently large that vibration of a handle portion of the toothbrush is noticeably reduced as compared to an arrangement where the axis of rotation of the drive shaft is coincident with the longitudinal axis of the handle portion. a handle portion; a driving assembly for the toothbrush located in the handle portion, wherein the handle portion has a longitudinal axis (B-B); and a motion conversion assembly which includes a drive shaft having a longitudinal axis (A-A) and an arm portion on which a brush head is mounted, characterized in that the motion conversion assembly is configured to convert a linear or slightly arcuate side-to-side motion to rotation of the drive shaft through a selected arc about its longitudinal axis (A-A), and is responsive to the driving assembly to produce a movement of the brush head, and wherein the drive shaft is tilted relative to the longitudinal axis of the handle portion at an angle (α) within such a range that the moment of inertia of the toothbrush relative to the axis of rotation of the drive shaft is sufficiently large that vibration of a handle portion of the toothbrush is noticeably reduced as compared to an arrangement where the axis of rotation of the drive shaft is coincident with the longitudinal axis of the handle portion.
A method for processing interference, comprising: measuring, according to a first demodulation reference signal, DMRS, pilot symbol carried by a first subcarrier used by an uplink user equipment, an interference channel matrix of an uplink interference channel from the uplink user equipment to a device-to-device, D2D, receiving end, wherein the first subcarrier is a subcarrier shared by a D2D transmitting end and the uplink user equipment, wherein the first DMRS pilot symbol is selected from a first DMRS pilot sequence which is used by the uplink user equipment, and the first DMRS pilot sequence is estimated by the D2D receiving end by comparing first K symbols of existing and known DMRS sequences with different lengths with the first K symbols of the first DMRS pilot sequence which is actually received by the D2D receiving end; calculating a null space matrix of the uplink interference channel according to the interference channel matrix; and processing, by using the null space matrix, a signal which comes from a D2D transmitting end and received by the D2D receiving end via the first subcarrier, to eliminate an interference signal, which comes from the uplink user equipment, in the signal. measuring, according to a first demodulation reference signal, DMRS, pilot symbol carried by a first subcarrier used by an uplink user equipment, an interference channel matrix of an uplink interference channel from the uplink user equipment to a device-to-device, D2D, receiving end, wherein the first subcarrier is a subcarrier shared by a D2D transmitting end and the uplink user equipment, wherein the first DMRS pilot symbol is selected from a first DMRS pilot sequence which is used by the uplink user equipment, and the first DMRS pilot sequence is estimated by the D2D receiving end by comparing first K symbols of existing and known DMRS sequences with different lengths with the first K symbols of the first DMRS pilot sequence which is actually received by the D2D receiving end; calculating a null space matrix of the uplink interference channel according to the interference channel matrix; and processing, by using the null space matrix, a signal which comes from a D2D transmitting end and received by the D2D receiving end via the first subcarrier, to eliminate an interference signal, which comes from the uplink user equipment, in the signal.
A method in a router for initiating fast flooding based fast convergence to recover from a network failure, the method comprising the steps of: detecting a network failure; responsive to the detected network failure, flooding a fast failure notification message out a set of one or more interfaces of the router, wherein the fast failure notification message includes information that identifies the network failure; and updating a routing table to reflect the network failure, wherein flooding the fast failure notification message out the set of interfaces of the router is performed prior to completion of the routing table update to reflect the network failure, the method characterized in that the fast failure notification message includes as its source Medium Access Control, MAC, address a MAC address that is assigned to an interface that is coupled with the detected failure. detecting a network failure; responsive to the detected network failure, flooding a fast failure notification message out a set of one or more interfaces of the router, wherein the fast failure notification message includes information that identifies the network failure; and updating a routing table to reflect the network failure, wherein flooding the fast failure notification message out the set of interfaces of the router is performed prior to completion of the routing table update to reflect the network failure,
A method for using an electronic apparatus, the method comprising: activating a timer function with respect to a button (300, 400, 500, 510, 520) if an input by the button is detected for at least a predetermined time; measuring an input hold time with respect to the button from a time point at which the input by the button is started when the timer function is activated; characterized by: displaying, on a display of the electronic apparatus, a countdown time value, the countdown time value correspondingly increasing as the input by the button is maintained; when the input by the button ends, setting a countdown time corresponding to the countdown time value being displayed on the display, as a countdown time to be used for performing a countdown; in response to the end of the input by the button, performing the countdown based on the set countdown time; and performing a function corresponding to the button when the countdown is completed; wherein the button is provided by an application and the countdown time is set differently according to the application. activating a timer function with respect to a button (300, 400, 500, 510, 520) if an input by the button is detected for at least a predetermined time; measuring an input hold time with respect to the button from a time point at which the input by the button is started when the timer function is activated; characterized by: displaying, on a display of the electronic apparatus, a countdown time value, the countdown time value correspondingly increasing as the input by the button is maintained; when the input by the button ends, setting a countdown time corresponding to the countdown time value being displayed on the display, as a countdown time to be used for performing a countdown; in response to the end of the input by the button, performing the countdown based on the set countdown time; and performing a function corresponding to the button when the countdown is completed; displaying, on a display of the electronic apparatus, a countdown time value, the countdown time value correspondingly increasing as the input by the button is maintained; when the input by the button ends, setting a countdown time corresponding to the countdown time value being displayed on the display, as a countdown time to be used for performing a countdown; in response to the end of the input by the button, performing the countdown based on the set countdown time; and performing a function corresponding to the button when the countdown is completed; wherein the button is provided by an application and the countdown time is set differently according to the application.
A process for producing a fatty alkyl ester and glycerin, comprising: step 1 of reacting fats and oils with a C1 to C5 alcohol; step 2 of removing the lower alcohol from the outlet product of step 1 until the lower alcohol content is reduced to 2 wt% or less; step 3 of separating the product obtained in step 2 into an oil phase and an aqueous phase to obtain an oil phase having a glycerin content of 0.6 wt.% or less in the separated phase; step 4 of reacting the oil phase obtained in step 3 with a C1 to C5 alcohol in the presence of a solid acid catalyst; and step 5 of separating the outlet product of step 4 into an oil phase and an aqueous phase to obtain an fatty acid alkyl ester(s) and glycerin, wherein the solid acid catalyst used in step 4 has a strong acid point of not higher than 0.2 mmol/g-cat and a weak acid point of not less than 0.3 mmol/g-cat, the acid points being defined as follows: weak acid point: the point at which desorption of NH 3 occurs in the range of 100 to 250°C in TPD (temperature programmed desorption: ammonia adsorption-desorption process), strong acid point: the point at which desorption of NH 3 occurs in the range of higher than 250°C in TPD. step 1 of reacting fats and oils with a C1 to C5 alcohol; step 2 of removing the lower alcohol from the outlet product of step 1 until the lower alcohol content is reduced to 2 wt% or less; step 3 of separating the product obtained in step 2 into an oil phase and an aqueous phase to obtain an oil phase having a glycerin content of 0.6 wt.% or less in the separated phase; step 4 of reacting the oil phase obtained in step 3 with a C1 to C5 alcohol in the presence of a solid acid catalyst; and step 5 of separating the outlet product of step 4 into an oil phase and an aqueous phase to obtain an fatty acid alkyl ester(s) and glycerin, wherein the solid acid catalyst used in step 4 has a strong acid point of not higher than 0.2 mmol/g-cat and a weak acid point of not less than 0.3 mmol/g-cat, the acid points being defined as follows: weak acid point: the point at which desorption of NH 3 occurs in the range of 100 to 250°C in TPD (temperature programmed desorption: ammonia adsorption-desorption process), strong acid point: the point at which desorption of NH 3 occurs in the range of higher than 250°C in TPD. weak acid point: the point at which desorption of NH 3 occurs in the range of 100 to 250°C in TPD (temperature programmed desorption: ammonia adsorption-desorption process), strong acid point: the point at which desorption of NH 3 occurs in the range of higher than 250°C in TPD.
A ferric citrate tablet for use in a method for improving at least one iron storage parameter in a non-dialysis chronic kidney disease human patient with anemia, wherein the method comprises orally administering one or more tablets to the patient per day, wherein each tablet comprises 1 g of ferric citrate.
A cell encapsulation device comprising: a first layer sealed along a portion of its periphery to a second layer along a portion of its periphery to define a chamber comprising a first interior surface and an opposing second interior surface, wherein the first interior surface is spaced apart in the chamber from the second interior surface; and structural spacers disposed within the chamber to maintain an average distance between the first interior surface and the second interior surface along a length and/or width of the chamber and to interconnect said first interior surface and said second interior surface, wherein the structural spacers further define at least one reservoir space for the placement of cells within the chamber, wherein both the first and second layers are a composite layer comprising: a) an outer porous layer; and b) an inner porous layer adjacent to the outer porous layer, wherein the inner porous layer has a porosity that is less than the outer porous layer, and wherein a portion of the inner porous layer is the first or second interior surface, wherein the structural spacers are adhered to the inner porous layers of the first and second composite layers via an adhesive and the adhesive does not penetrate into the pores of the outer porous layers of the first and second composite layers. a first layer sealed along a portion of its periphery to a second layer along a portion of its periphery to define a chamber comprising a first interior surface and an opposing second interior surface, wherein the first interior surface is spaced apart in the chamber from the second interior surface; and structural spacers disposed within the chamber to maintain an average distance between the first interior surface and the second interior surface along a length and/or width of the chamber and to interconnect said first interior surface and said second interior surface, wherein the structural spacers further define at least one reservoir space for the placement of cells within the chamber, wherein both the first and second layers are a composite layer comprising: a) an outer porous layer; and b) an inner porous layer adjacent to the outer porous layer, a) an outer porous layer; and b) an inner porous layer adjacent to the outer porous layer, wherein the inner porous layer has a porosity that is less than the outer porous layer, and wherein a portion of the inner porous layer is the first or second interior surface, wherein the structural spacers are adhered to the inner porous layers of the first and second composite layers via an adhesive and the adhesive does not penetrate into the pores of the outer porous layers of the first and second composite layers.
A method of creating a mist from a fluid having a point of capillary break-up, comprising: stretching the fluid along a strain pathway that extends between two diverging surfaces, the stretched fluid forming a fluid filament by applying a strain to the fluid; causing the fluid filament to break into a plurality of droplets when the applied strain exceeds the capillary break-up point of the fluid filament; and harvesting the plurality of droplets to form the mist, wherein forming the droplets of the aerosol is aided by an aerosol harvesting system. stretching the fluid along a strain pathway that extends between two diverging surfaces, the stretched fluid forming a fluid filament by applying a strain to the fluid; causing the fluid filament to break into a plurality of droplets when the applied strain exceeds the capillary break-up point of the fluid filament; and harvesting the plurality of droplets to form the mist, wherein forming the droplets of the aerosol is aided by an aerosol harvesting system.
A fluid distributor (9, 10) for a column including at least one cell containing a bed of particles, the fluid distributor (9, 10) comprising: - a floor (11, 21) including at least one injection point (15, 25) ensuring a fluidic connection on either side thereof; - a resistive medium layer (12, 22) attached to the floor (11, 21) and formed with a plurality of resistive medium parts, preferably from two to two hundred, and more preferably from five to fifty, juxtaposed on a face of the floor (11, 21), the resistive medium being permeable to the fluid; - a spacing device (13, 23) inserted between the floor (11, 21) and the resistive medium layer (12, 22) and maintaining a spacing for fluid circulation between the floor (11, 21) and the resistive medium layer (12, 22); the spacing device (13, 23) being composed of washers, grid(s) or grating(s), flat supports or foams. - a floor (11, 21) including at least one injection point (15, 25) ensuring a fluidic connection on either side thereof; - a resistive medium layer (12, 22) attached to the floor (11, 21) and formed with a plurality of resistive medium parts, preferably from two to two hundred, and more preferably from five to fifty, juxtaposed on a face of the floor (11, 21), the resistive medium being permeable to the fluid; - a spacing device (13, 23) inserted between the floor (11, 21) and the resistive medium layer (12, 22) and maintaining a spacing for fluid circulation between the floor (11, 21) and the resistive medium layer (12, 22); the spacing device (13, 23) being composed of washers, grid(s) or grating(s), flat supports or foams.
A method for testing an internal resistance of a battery, applied to an electronic device, wherein the method comprises: obtaining an in-position status of a charger of the electronic device; turning off a first switch when the charger of the electronic device is in-position, wherein the first switch is located between a load of the electronic device and a battery of the electronic device; and after the load is disconnected from the battery, detecting a change of an internal resistance of the battery to obtain an internal resistance test result; characterized in that the method further comprises: before the turning off the first switch: turning on a fast charging chip of the device and turning off a BUCK chip of the device, so that the fast charging chip supplies power to the load of the electronic device based on a power supply signal input by the charger. obtaining an in-position status of a charger of the electronic device; turning off a first switch when the charger of the electronic device is in-position, wherein the first switch is located between a load of the electronic device and a battery of the electronic device; and after the load is disconnected from the battery, detecting a change of an internal resistance of the battery to obtain an internal resistance test result;
A method of communication by a requesting device, comprising: sending, from the requesting device to a recipient device prior to establishing a communication session with the recipient device, a request for the communication session, wherein the request comprises metadata including a timeout indicating when the request is automatically cancelled and an estimated duration of the communication session, and wherein the timeout is automatically determined based on the estimated duration and calendar information for the requesting device; receiving, within the requesting device, a reply to the request from the recipient device; and responsive to the reply, scheduling the communication session within the requesting device based upon the reply and the timeout. sending, from the requesting device to a recipient device prior to establishing a communication session with the recipient device, a request for the communication session, wherein the request comprises metadata including a timeout indicating when the request is automatically cancelled and an estimated duration of the communication session, and wherein the timeout is automatically determined based on the estimated duration and calendar information for the requesting device; receiving, within the requesting device, a reply to the request from the recipient device; and responsive to the reply, scheduling the communication session within the requesting device based upon the reply and the timeout.