mhurhangee/ep-ind-claims huggingface dataset:
A dressing for treating a tissue site, comprising: a tissue interface having a first layer comprising a foam and a second layer comprising a plurality of apertures, the second layer adapted to be positioned between the first layer and the tissue site; a dressing interface having a housing including a therapy cavity and a component cavity fluidly isolated from the therapy cavity, the therapy cavity having an opening adapted to be in fluid communication with the first layer and a port adapted to be fluidly coupled to a negative-pressure source; a control device disposed within the component cavity and including a microprocessor; and a first pH sensor (414, 417) having a sensing portion (415, 419) adapted to be positioned between the second layer and the tissue site and electrically coupled to the microprocessor, the first pH sensor (414, 417) configured to detect a pH level of fluid present at the tissue site and to provide a pH output to the microprocessor based on the pH level detected. a tissue interface having a first layer comprising a foam and a second layer comprising a plurality of apertures, the second layer adapted to be positioned between the first layer and the tissue site; a dressing interface having a housing including a therapy cavity and a component cavity fluidly isolated from the therapy cavity, the therapy cavity having an opening adapted to be in fluid communication with the first layer and a port adapted to be fluidly coupled to a negative-pressure source; a control device disposed within the component cavity and including a microprocessor; and a first pH sensor (414, 417) having a sensing portion (415, 419) adapted to be positioned between the second layer and the tissue site and electrically coupled to the microprocessor, the first pH sensor (414, 417) configured to detect a pH level of fluid present at the tissue site and to provide a pH output to the microprocessor based on the pH level detected.
A furnace burning oil, gas or oil biofuel which is encased by a mantle, a front end and a back end and comprises a combustion chamber and a tube (5a, 5b) installed outside the combustion chamber, through which tube the combustion gases generated by a flame of a burner are arranged to flow out of the furnace, wherein the burner is of a type which generates a fluttering flame in the combustion chamber, and the combustion chamber ends up in an echo chamber arranged in the back section of the furnace which have a sufficient length for producing a sound when the combustion gases generated by the fluttering flame of the burner impinge on the back end of the furnace, characterized in that the front wall of said echo chamber being provided with outlets for a first tube set, said tube set ending up in a reversing chamber arranged in the front of the front end of the furnace, the back wall of said reversing chamber being provided with outlets for a second tube set arranged parellelly to the first tube set, said second tube set ending up in a second echo chamber arranged in the back section of the furnace, in which second echo chamber the sound produced by the vibrating combustion gas flow reaches a level capable of loosing and discharging ash and soot from all surfaces of the furnace.
A security network system for monitoring activity in areas comprising: a wired security device (104, 105); a wireless adapter including: a power supply module that receives power from an external power source; a power injector module that receives power from the power supply module and provides power to the at least one combined data/power physical port; an adapter controller that maintains a wired data connection to the wired security device via the combined data/power physical port; and a wireless transceiver that maintains a wireless data connection using at least one antenna; a security network controller that controls and receives data from the wired security device and other wired security devices via a wired security network; and a wireless access point for supporting the wireless data connection between the wireless adapter and the wired security network, wherein the wireless adapter further comprises a secured authentication circuit for authenticating the wired security device (104, 105) to the security network controller or a network video recorder, wherein the authentication circuit enables access for only authenticated security devices. a wired security device (104, 105); a wireless adapter including: a power supply module that receives power from an external power source; a power injector module that receives power from the power supply module and provides power to the at least one combined data/power physical port; an adapter controller that maintains a wired data connection to the wired security device via the combined data/power physical port; and a wireless transceiver that maintains a wireless data connection using at least one antenna; a power supply module that receives power from an external power source; a power injector module that receives power from the power supply module and provides power to the at least one combined data/power physical port; an adapter controller that maintains a wired data connection to the wired security device via the combined data/power physical port; and a wireless transceiver that maintains a wireless data connection using at least one antenna; a security network controller that controls and receives data from the wired security device and other wired security devices via a wired security network; and a wireless access point for supporting the wireless data connection between the wireless adapter and the wired security network, wherein the wireless adapter further comprises a secured authentication circuit for authenticating the wired security device (104, 105) to the security network controller or a network video recorder, wherein the authentication circuit enables access for only authenticated security devices.
An aerosol assembly for dispensing a foam comprising; a body; at least one reservoir located in the body 9 20) for foam formulation and propellant, each reservoir fluidly connected to an outlet; a valve mounted to the body and actuatable to open and close the outlet; a nozzle defining a passageway extending from the valve to shape forming means (32; 220); and an actuator member (33; 208) for actuating the valve; wherein the actuator member (33; 208)is arranged to move relative to the body such that; in a first position the vale is closed; as the actuator member (33; 208) moves towards a second position the valve is opened; wherein the shape forming means (32; 220) is operable to impart a cross-sectional shape to the foam as the foam is ejected from the nozzle; characterised in that the aerosol assembly further comprises a propellant having a density lower than that of air located in the at least one reservoir; and wherein the foam formulation traps enough propellant to enable the foam dispensed by the aerosol to rise in the air due to its low density.
A method for the recombinant production of a polypeptide in a eukaryotic cell comprising the steps of: - cultivating a eukaryotic cell comprising a nucleic acid encoding the polypeptide in a cultivation medium comprising the subtype-specific histone deacylase (HDAC) inhibitor Romidepsin, and - recovering the polypeptide from the cell or the cultivation medium and thereby producing the polypeptide in a eukaryotic cell. - cultivating a eukaryotic cell comprising a nucleic acid encoding the polypeptide in a cultivation medium comprising the subtype-specific histone deacylase (HDAC) inhibitor Romidepsin, and - recovering the polypeptide from the cell or the cultivation medium and thereby producing the polypeptide in a eukaryotic cell.
Method for simultaneous compression and characterization of ultrashort laser pulses comprising: a. emitting an ultrashort laser pulse from a laser oscillator; b. applying a set of predetermined spectral phases to the ultrashort laser pulse, continuously or in a stepwise fashion, so as to perform a dispersion scan, with the pulse duration crossing a minimum during the scan; c. applying a nonlinear process to the ultrashort laser pulse for each applied spectral phase; d. obtaining a two-dimensional measured dispersion scan trace by measuring spectra of the signal generated as a result of the nonlinear process as a function of the applied spectral phases; e. measuring the linear spectrum of the ultrashort laser pulse; f. retrieving the spectral phase of the ultrashort laser pulse by minimizing an error function using a numerical iterative algorithm, wherein the numerical iterative algorithm comprises minimizing an error function defined between the measured dispersion scan trace and a simulated dispersion scan trace; the simulated dispersion scan trace being generated using a mathematical model for the nonlinear process, and the measured fundamental spectrum of the ultrashort laser pulse and an iterative approximation of the spectral phase of the ultrashort laser pulse, wherein a phase function used for carrying out the iteration is described in a given basis and wherein, if the iterative algorithm is stuck, the basis is changed; g. compressing the ultrashort laser pulse by applying the spectral phase for which said pulse becomes as short as possible for the retrieved spectral phase. a. emitting an ultrashort laser pulse from a laser oscillator; b. applying a set of predetermined spectral phases to the ultrashort laser pulse, continuously or in a stepwise fashion, so as to perform a dispersion scan, with the pulse duration crossing a minimum during the scan; c. applying a nonlinear process to the ultrashort laser pulse for each applied spectral phase; d. obtaining a two-dimensional measured dispersion scan trace by measuring spectra of the signal generated as a result of the nonlinear process as a function of the applied spectral phases; e. measuring the linear spectrum of the ultrashort laser pulse; f. retrieving the spectral phase of the ultrashort laser pulse by minimizing an error function using a numerical iterative algorithm, wherein the numerical iterative algorithm comprises minimizing an error function defined between the measured dispersion scan trace and a simulated dispersion scan trace; the simulated dispersion scan trace being generated using a mathematical model for the nonlinear process, and the measured fundamental spectrum of the ultrashort laser pulse and an iterative approximation of the spectral phase of the ultrashort laser pulse, wherein a phase function used for carrying out the iteration is described in a given basis and wherein, if the iterative algorithm is stuck, the basis is changed; g. compressing the ultrashort laser pulse by applying the spectral phase for which said pulse becomes as short as possible for the retrieved spectral phase.
An apparatus for use in a borehole, characterized by: - a rotor (120, 140) having at least one set of magnetic elements (122, 142), wherein a polarity of each magnetic element (122, 142) is arranged to alternate along a long axis of the rotor (120, 140); and - a cylindrical stator (110, 130) within and in sliding engagement with the rotor (120, 140), the stator (110, 130) having a winding flowing current in a direction transverse to a long axis of the stator (110, 130), the stator (110, 130) having a core formed at least partially of laminations (64, 114, 133) aligned along a plane co-planar with the long axis of the stator (110, 130), wherein energizing the winding causes relative sliding between the rotor (120, 140) and the stator (110, 130), the sliding being principally along the long axis of the rotor (120, 140). - a rotor (120, 140) having at least one set of magnetic elements (122, 142), wherein a polarity of each magnetic element (122, 142) is arranged to alternate along a long axis of the rotor (120, 140); and - a cylindrical stator (110, 130) within and in sliding engagement with the rotor (120, 140), the stator (110, 130) having a winding flowing current in a direction transverse to a long axis of the stator (110, 130), the stator (110, 130) having a core formed at least partially of laminations (64, 114, 133) aligned along a plane co-planar with the long axis of the stator (110, 130), wherein energizing the winding causes relative sliding between the rotor (120, 140) and the stator (110, 130), the sliding being principally along the long axis of the rotor (120, 140).
Apparatus for treating a subject, comprising: at least one sensing electrode, adapted to be coupled to tissue of the subject at a sensing site of a stomach of the subject, and to generate a sensor signal; a set of one or more current application electrodes, adapted to be coupled to tissue of the subject at a current application site; and a control unit, adapted to: receive the sensor signal, identify a change in a frequency component of an electrical potential in a vicinity of the sensing electrode, and drive a current through the set of one or more current application electrodes into the tissue at the current application site, characterised in that the change; in a frequency component identified by the control unit is a drop in a frequency of the frequency component, which frequency component is in the range of 2-7 cycles per minute and the control unit is further adapted to detect eating of the subject in response to identifying the drop in the frequency, and, upon detecting eating, drive the current through the set of one or more current application electrodes. at least one sensing electrode, adapted to be coupled to tissue of the subject at a sensing site of a stomach of the subject, and to generate a sensor signal; a set of one or more current application electrodes, adapted to be coupled to tissue of the subject at a current application site; and a control unit, adapted to: receive the sensor signal, identify a change in a frequency component of an electrical potential in a vicinity of the sensing electrode, and drive a current through the set of one or more current application electrodes into the tissue at the current application site, receive the sensor signal, identify a change in a frequency component of an electrical potential in a vicinity of the sensing electrode, and drive a current through the set of one or more current application electrodes into the tissue at the current application site, characterised in that the change; in a frequency component identified by the control unit is a drop in a frequency of the frequency component, which frequency component is in the range of 2-7 cycles per minute and the control unit is further adapted to detect eating of the subject in response to identifying the drop in the frequency, and, upon detecting eating, drive the current through the set of one or more current application electrodes.
Heat exchanger consisting of a container for liquid with an inlet pipe for cold liquid and an outlet pipe for hot liquid, a heat-releasing tube coil for heating fluid, which has an inlet tube, a heat-releasing tube, wound in the form of a coil around the container for liquid, and an outlet tube, wherein there is a thermal insulation layer and an outer protective jacket around the container for liquid and the heat-releasing tube coil, characterized in that the heat-releasing tube of the heat-releasing tube coil is tensioned around the container for liquid by preheating only the heat-releasing tube coil to the operating temperature of a heat transfer fluid, intended to circulate in the coil, before winding the heat-releasing tube around the container for liquid.
A clad aluminum alloy product, comprising: a core layer comprising up to 12.0 wt. % Zn, 1.0 to 4.0 wt. % Mg, 0.1 to 3.0 wt. % Cu, up to 0.60 wt. % Si, up to 0.50 wt. % Fe, up to 0.20 wt. % Mn, up to 0.20 wt. % Cr, up to 0.30 wt. % Zr, up to 0.15 wt. % impurities, and the remainder aluminum, wherein the core layer has a first side and a second side; and a first cladding layer on the first side of the core layer, wherein the first cladding layer is an AA7xxx series alloy cladding layer selected from AA7011, AA7019, AA7020, AA7021, AA7039, AA7075, AA7085, AA7108, AA7108A, AA7015, AA7017, AA7018, AA7019A, AA7024, AA7025, AA7028, AA7030, AA7031, AA7033, AA7035, AA7035A, AA7046, AA7046A, AA7003, AA7004, AA7005, AA7009, AA7010, AA7011, AA7012, AA7014, AA7016, AA7116, AA7122, AA7023, AA7026, AA7029, AA7129, AA7229, AA7032, AA7033, AA7034, AA7036, AA7136, AA7037, AA7040, AA7140, AA7041, AA7049, AA7049A, AA7149, AA7204, AA7249, AA7349, AA7449, AA7050, AA7050A, AA7150, AA7250, AA7055, AA7155, AA7255, AA7056, AA7060, AA7064, AA7065, AA7068, AA7168, AA7175, AA7475, AA7076, AA7178, AA7278, AA7278A, AA7081, AA7181, AA7185, AA7090, AA7093, AA7095, and AA7099.
Curved wall comprising, in this order: • a first composite layer, • a first metal layer, and • a second composite layer; wherein the first and second composite layers comprise carbon fibers; wherein the first metal layer comprises metal strips of titanium-based material; wherein the metal strips have a thickness between 1 and 500 μm and a width between 2 and 200 mm; wherein the metal strips of the first metal layer cover at least 80% of the surface of the first metal layer. • a first composite layer, • a first metal layer, and • a second composite layer; wherein the first and second composite layers comprise carbon fibers; wherein the first metal layer comprises metal strips of titanium-based material; wherein the metal strips have a thickness between 1 and 500 μm and a width between 2 and 200 mm; wherein the metal strips of the first metal layer cover at least 80% of the surface of the first metal layer.
Electric fuse mounting, comprising a casing consisting of an electric insulating material, into which an electric fuse with a melting member is insertable together with other electric conductive elements, wherein said casing is furnished with a front surface, which is located on its front end portion and on which a cavity is available, which is intended to receive each fuse with corresponding melting member and corresponding cover, while on the opposite end portion said casing is furnished with suitable arresting means (13', 13") and herewith adjusted for mounting to a standardized ledge in each disposable switch board, and wherein said front surface of the casing is graduated, so that the central region including said cavity for receiving the fuse and each corresponding cover protrudes from the neighboring front faces (11", 11'''), which are arranged diametrically with respect to said cavity for receiving the fuse, and wherein said cavity is defined by means of its longitudinal geometric axis, which is located in the central plane of the casing and corresponds to the longitudinal geometric axis of each fuse, while the central plane of the casing passes through said front faces (11", 11'''), and wherein in the area of diametrically opposite lateral surfaces (14', 14") of the casing, which are located adjacent to said front faces (11", 11'''), two connecting terminals (15', 15") are available, which serve for establishing of each required connection between each electric conductors and the electric fuse, wherein each of said connecting terminals (15', 15") is via an electric conductive contact member (16" 16") within the casing electrically interconnected with an electric contact (160', 160") suitable for establishing appropriate electric contact with a fuse when inserted within the cavity of the casing, and wherein each of said connecting terminals (15', 15") is furnished with a screw (17', 17"), which is mounted within said casing and located in said central plane of the casing and extends substantially in a direction from each corresponding front face (11", 11''') of the casing towards each corresponding connecting terminal (15" 15"), and wherein said screws (17', 17") of the connecting terminals (15', 15") are accessible through corresponding passages (18', 18") on the front faces (11", 11''') of the casing of the fuse mounting, but are for the safety reasons located sufficiently below said front surface i.e. said front faces (11", 11'''), so that the access from outside of each user by the finger is prevented, characterized in that at least one of said screws (17', 17") is arranged in the central plane of the casing and extends inclined at a pre-determined angle (α, β) relative to the central geometric axis of said cavity for receiving the fuse, so that in the direction from the front surface towards the arresting members (13', 13") at least one of said screws (17', 17") approaches to said geometric axis and simultaneously also to each residual screw (17', 17").
Optical package, comprising: - a carrier comprising electrical interconnections, - an optoelectronic component arranged for detecting electromagnetic radiation in a specified wavelength range, mounted on the carrier or integrated into the carrier, and electrically connected to the electric interconnections, - an aspheric lens having an upper surface, a lateral surface, and a bottom surface, wherein the bottom surface is contiguous with a surface of the optoelectronic component, and wherein the aspheric lens comprises a material which is at least transparent in the specified wavelength range, and wherein the upper surface is smaller than the bottom surface, - a reflective layer comprising a reflective material, wherein the reflective layer at least partly covers the lateral surface of the aspheric lens, and wherein the reflective material is at least partly reflective in the specified wavelength range, - an encasement arranged on the carrier, the encasement comprising a filler material and sidewalls which enclose the lateral surface of the aspheric lens such that the sidewalls are in direct contact with or encapsulating the reflective layer. - a carrier comprising electrical interconnections, - an optoelectronic component arranged for detecting electromagnetic radiation in a specified wavelength range, mounted on the carrier or integrated into the carrier, and electrically connected to the electric interconnections, - an aspheric lens having an upper surface, a lateral surface, and a bottom surface, wherein the bottom surface is contiguous with a surface of the optoelectronic component, and wherein the aspheric lens comprises a material which is at least transparent in the specified wavelength range, and wherein the upper surface is smaller than the bottom surface, - a reflective layer comprising a reflective material, wherein the reflective layer at least partly covers the lateral surface of the aspheric lens, and wherein the reflective material is at least partly reflective in the specified wavelength range, - an encasement arranged on the carrier, the encasement comprising a filler material and sidewalls which enclose the lateral surface of the aspheric lens such that the sidewalls are in direct contact with or encapsulating the reflective layer.