mhurhangee/patent-ind-claim-en huggingface dataset:
Folding box having a rear wall , having side walls adjoining the rear wall , having a front wall connecting the side walls to one another and having a base comprising base sections attached to the side walls and to the front wall ,wherein the rear wall comprises a folding extension provided on the edge on the bottom side, which folding extension forms - separated from one another by folding lines - a bottom leg , a supporting web protruding from the bottom leg , and a receiving leg bent back towards the rear wall and glued to the rear wall to form a step, for the securing of which step two flaps are provided which can be pivoted inwards out of the side walls about an axis parallel to the rear wall towards the step, characterized in that the flaps , which are provided on the front wall side of their pivot axis and can be placed on the outside of the supporting web , have a securing tab which can be bent about a folding line towards the supporting web and which engage in an insertion slot provided in the supporting web .
A device for determining the temperature conductivity, the heat capacity and/or the thermal conductivity of a material sample , having a light emitter for exposing a front side of the sample to a light energy beam and a radiation detector for determining the temperature rise at a rear side of the sample facing away from the front side by detecting the radiation emitted there as a function of temperature, and a sample holder for holding the sample in a defined position, wherein a first adjustable aperture is arranged on the front side in front of the sample holder , which aperture the light energy beam passes before it strikes the front side of the sample , and in that a second adjustable aperture is arranged on the rear side behind the sample holder , wherein the sample holder comprises several and preferably three pins which are displaceable in the radial direction, characterized in that the sample holder comprises a specimen holder ring forming radial guides for the pins and a seat for each of the adjustable apertures .
A method of displaying a medical image, the method comprising: displaying a first medical image on a screen; receiving a first input that selects a first object in the first medical image displayed on the screen; in response to the first input, displaying, on a predetermined fixed region of the screen, first geometry information comprising either one or both of position information and size information of the first object ; receiving a control input that zooms in on or zooms out from the first object in the first medical image; in response to the control input, enlarging or reducing the first medical image including the first object , and continuing to display the first geometry information on the predetermined fixed region of the screen. displaying a first medical image on a screen; receiving a first input that selects a first object in the first medical image displayed on the screen; in response to the first input, displaying, on a predetermined fixed region of the screen, first geometry information comprising either one or both of position information and size information of the first object ; receiving a control input that zooms in on or zooms out from the first object in the first medical image; in response to the control input, enlarging or reducing the first medical image including the first object , and continuing to display the first geometry information on the predetermined fixed region of the screen.
A thermal transfer module for producing hot water, in particular domestic hot water, said thermal transfer module being intended to be connected between a hot water storage tank and a heat pump , said tank comprising at least a so-called "high inlet" , a so-called "high outlet" , a so-called "low inlet" and a so-called "low outlet" , said heat pump comprising a so-called "hot outlet" and a so-called "cold inlet" and an inner heat exchanger capable of providing heat between said hot outlet and said cold inlet by using carbon dioxide as a coolant, said thermal transfer module comprising: - a first three-way valve device , comprising an inlet way, an outlet way, intended to be connected to the high inlet of the tank , and a bypass way, - a heat exchanger comprising, on the one hand, a so-called "hot inlet" for being connected with the hot outlet of the heat pump and a so-called "cold outlet" for being connected to the cold inlet of the heat pump and, on the other hand, a so-called "cold inlet" and a so-called "hot outlet" connected to the inlet way of the first three-way valve device , the thermal transfer module comprising a second three-way valve device comprising: - an inlet way for being connected to the low outlet of the tank , said thermal transfer module being characterised in that the second three-way valve device comprises: - an outlet way connected, on the one hand, to the cold inlet of the heat exchanger of the thermal transfer module and, on the other hand, to the bypass way of the first three-way valve device , and - a by-pass way for being connected to a water dispensing point and to the low inlet of the tank . - a first three-way valve device , comprising an inlet way, an outlet way, intended to be connected to the high inlet of the tank , and a bypass way, - a heat exchanger comprising, on the one hand, a so-called "hot inlet" for being connected with the hot outlet of the heat pump and a so-called "cold outlet" for being connected to the cold inlet of the heat pump and, on the other hand, a so-called "cold inlet" and a so-called "hot outlet" connected to the inlet way of the first three-way valve device , - an inlet way for being connected to the low outlet of the tank , said thermal transfer module being characterised in that the second three-way valve device comprises: - an outlet way connected, on the one hand, to the cold inlet of the heat exchanger of the thermal transfer module and, on the other hand, to the bypass way of the first three-way valve device , and - a by-pass way for being connected to a water dispensing point and to the low inlet of the tank . - an outlet way connected, on the one hand, to the cold inlet of the heat exchanger of the thermal transfer module and, on the other hand, to the bypass way of the first three-way valve device , and - a by-pass way for being connected to a water dispensing point and to the low inlet of the tank .
A solenoid controlled respiratory gas demand valve comprising: a) a valve body having a supply gas port leading from an exterior surface of the valve body to an interior chamber , a valve seat member disposed between the interior chamber and a patient circuit outlet port and a bleed gas exhaust path leading to the patient circuit outlet port, the valve body including an annular collar ; b) a valve plate member sealingly attached to the annular collar of the valve body , the valve plate member including an upper surface and a lower surface , the lower surface including an integrally formed nose portion extending outwardly therefrom and centered with respect to the valve seat member and the upper surface including a cylindrical socket , there being a first bore extending from a bottom of the socket and through said nose portion ; c) an elastic diaphragm having a peripheral portion captured between the valve body and the valve plate member and overlaying said nose portion , the diaphragm including a bleed port extending through a thickness dimension thereof; and d) a solenoid-operated proportional valve mounted on the upper surface of the valve plate member , the solenoid-operated proportional valve having a cylindrical boss fitting into said cylindrical socket , the solenoid-operated proportional valve having a displaceable, electrically-actuated poppet for selectively blocking and unblocking a second bore extending through said boss and leading to said first bore in the valve plate . a) a valve body having a supply gas port leading from an exterior surface of the valve body to an interior chamber , a valve seat member disposed between the interior chamber and a patient circuit outlet port and a bleed gas exhaust path leading to the patient circuit outlet port, the valve body including an annular collar ; b) a valve plate member sealingly attached to the annular collar of the valve body , the valve plate member including an upper surface and a lower surface , the lower surface including an integrally formed nose portion extending outwardly therefrom and centered with respect to the valve seat member and the upper surface including a cylindrical socket , there being a first bore extending from a bottom of the socket and through said nose portion ; c) an elastic diaphragm having a peripheral portion captured between the valve body and the valve plate member and overlaying said nose portion , the diaphragm including a bleed port extending through a thickness dimension thereof; and d) a solenoid-operated proportional valve mounted on the upper surface of the valve plate member , the solenoid-operated proportional valve having a cylindrical boss fitting into said cylindrical socket , the solenoid-operated proportional valve having a displaceable, electrically-actuated poppet for selectively blocking and unblocking a second bore extending through said boss and leading to said first bore in the valve plate .
A method of registering for a service a device residing in a small cell provided by a small cell base station , the small cell base station being associated with a cloud-based server , the server including a docker container for controlling the service in that small cell, the docker container having a docker port , and the method including the steps of: the device sending a request to register including a small cell identifier, Cell Id, of the small cell , the server receiving the request and determining the docker port identifier that corresponds to the small cell identifier indicated in the request, and the device being informed of the docker port identifier of the docker associated with that small cell . the device sending a request to register including a small cell identifier, Cell Id, of the small cell , the server receiving the request and determining the docker port identifier that corresponds to the small cell identifier indicated in the request, and the device being informed of the docker port identifier of the docker associated with that small cell .
Method for welding a first workpiece to a second workpiece by means of a laser, comprising the steps of: - irradiating the first workpiece with a beam of pulsed laser radiation, wherein the first workpiece consists of a semiconductor material which is transparent at the wavelength of the laser radiation, so that the beam enters the first workpiece through an entrance surface and leaves it through an exit surface, the geometric focus of the beam being positioned in the plane of the exit surface; - determining a delocalization of the focus caused by nonlinear interaction of the laser radiation with the semiconductor material; - placing the second workpiece against the first workpiece ; and - again irradiating the first workpiece with the laser beam of pulsed laser radiation, the focus of the laser radiation being positioned along the beam direction taking into account the determined delocalization so that the intensity maximum is located in the plane of the exit surface forming the interface of the two workpieces , whereby the first workpiece is welded to the second workpiece . - irradiating the first workpiece with a beam of pulsed laser radiation, wherein the first workpiece consists of a semiconductor material which is transparent at the wavelength of the laser radiation, so that the beam enters the first workpiece through an entrance surface and leaves it through an exit surface, the geometric focus of the beam being positioned in the plane of the exit surface; - determining a delocalization of the focus caused by nonlinear interaction of the laser radiation with the semiconductor material; - placing the second workpiece against the first workpiece ; and - again irradiating the first workpiece with the laser beam of pulsed laser radiation, the focus of the laser radiation being positioned along the beam direction taking into account the determined delocalization so that the intensity maximum is located in the plane of the exit surface forming the interface of the two workpieces , whereby the first workpiece is welded to the second workpiece .
A refrigeration cycle apparatus in which a non-azeotropic refrigerant mixture circulates through a refrigeration cycle configured by a compressor , a condenser , a first decompressor , a vapor/liquid separator , a second decompressor and an evaporator which are connected sequentially, the non-azeotropic refrigerant mixture consisting of a high-boiling refrigerant and a or some low-boiling refrigerant(s) mixed at a predetermined mixing ratio, the apparatus comprising a controller for variably adjusting a pressure in said vapor/liquid separator by controlling opening of said first decompressor and said second decompressor , characterized in that the apparatus further comprises an intermediate-pressure injection circuit which introduces a refrigerant taken out of a liquid section of said vapor/liquid separator into an intermediate-pressure section of said compressor via a third decompressor , wherein the controller is configured to determine the mixing ratio of said high-boiling refrigerant and said low-boiling refrigerant of said non-azeotropic refrigerant mixture so that a saturated vapor line, where a gauge pressure that suppresses refrigerant decomposition due to incorporation of fluid is 0.00 MPa, is ≤ -45°C in a low-pressure circuit formed between said second decompressor and said compressor , and adjust a composition ratio of a non-azeotropic refrigerant mixture circulating through said intermediate-pressure injection circuit and a composition ratio of a non-azeotropic refrigerant mixture circulating through said low-pressure circuit on the basis of the pressure of the refrigerant sucked by said compressor .
A silk fibroin biocompatible polyurethane membrane matrix, for use as a tympanic membrane or as a scaffold for the regeneration of a tympanic membrane, wherein the membrane matrix: (a) includes silk fibroin in an amount ranging from about 0.1% to about 95% of the total volume of the membrane (w/w); (b) includes at least 1% (w/w) biocompatible polyurethane; (c) is capable of transmitting sound waves between 20 Hz and 20 KHz to the middle ear, when implanted in vivo ; (d) has a tensile strength between 5 MPa to 100 MPa; and (e) is fabricated from biocompatible polyurethane and silk protein solubilized in a solvent compatible with both the biocompatible polyurethane and the silk fibroin. (a) includes silk fibroin in an amount ranging from about 0.1% to about 95% of the total volume of the membrane (w/w); (b) includes at least 1% (w/w) biocompatible polyurethane; (c) is capable of transmitting sound waves between 20 Hz and 20 KHz to the middle ear, when implanted in vivo ; (d) has a tensile strength between 5 MPa to 100 MPa; and (e) is fabricated from biocompatible polyurethane and silk protein solubilized in a solvent compatible with both the biocompatible polyurethane and the silk fibroin.
A method for the localized deposition of a metal layer comprising: (a) introducing a first gaseous reactant, the first gaseous reactant comprising a metal-containing precursor, and a second gaseous reactant to a surface of a substrate , wherein the first and second gaseous reactants are introduced to the surface of the substrate through one or more gas outlets ; and (b) directing a laser against a location on the substrate surface that is adjacent to the one or more gas outlets , thereby heating a zone of the surface to a temperature at which the first and second gaseous reactants react, such that a metal layer is deposited on the heated zone of the substrate surface, characterized by repeating (a) and (b) to perform three-dimensional printing of a plurality of layers of the metal onto the substrate by repositioning the laser and the gas outlets in a controlled manner in coordination with the repositioning of the heated zone so that the first and second gaseous reactants remain in contact with the heated zone , so as to deposit the metal layer in a desired pattern on the substrate surface, wherein the size and thickness of the metal deposits is precisely controlled through control over the relevant reaction parameters. (a) introducing a first gaseous reactant, the first gaseous reactant comprising a metal-containing precursor, and a second gaseous reactant to a surface of a substrate , wherein the first and second gaseous reactants are introduced to the surface of the substrate through one or more gas outlets ; and (b) directing a laser against a location on the substrate surface that is adjacent to the one or more gas outlets , thereby heating a zone of the surface to a temperature at which the first and second gaseous reactants react, such that a metal layer is deposited on the heated zone of the substrate surface,
A polymeric polyoxazoline having the following structure: where X is the residue of a polymeric polyol after reaction with a dicarboxylic acid/anhydride; where R 5 is an organic moiety; where Y is an organic moiety containing one or more oxazoline groups; and wherein each R 10 is independently hydrogen or an organic moiety.
A data transmission method, wherein the method comprises processing steps of: separating , by a transmit end device, m to-be-sent common public radio interface CPRI data streams to obtain m in-phase and quadrature I/Q data streams; grouping , by the transmit end device, the m I/Q data streams into a plurality of clusters based on a correlation between the m I/Q data streams, wherein each cluster of the plurality of clusters that meets a first preset condition is a first-type cluster and each other cluster of the plurality of clusters that does not meet the first preset condition is a second-type cluster, and the first preset condition is that transmission bandwidth required after a data stream in a cluster is compressed in a first compression manner is less than transmission bandwidth required after the data stream in the cluster is compressed in a second compression manner; and combining , by the transmit end device, a cluster obtained after each first-type cluster is compressed in the first compression manner and a cluster obtained after each second-type cluster is compressed in the second compression manner, and a transmission step of sending the combined data stream to a receive end device. separating , by a transmit end device, m to-be-sent common public radio interface CPRI data streams to obtain m in-phase and quadrature I/Q data streams; grouping , by the transmit end device, the m I/Q data streams into a plurality of clusters based on a correlation between the m I/Q data streams, wherein each cluster of the plurality of clusters that meets a first preset condition is a first-type cluster and each other cluster of the plurality of clusters that does not meet the first preset condition is a second-type cluster, and the first preset condition is that transmission bandwidth required after a data stream in a cluster is compressed in a first compression manner is less than transmission bandwidth required after the data stream in the cluster is compressed in a second compression manner; and combining , by the transmit end device, a cluster obtained after each first-type cluster is compressed in the first compression manner and a cluster obtained after each second-type cluster is compressed in the second compression manner, and a transmission step of sending the combined data stream to a receive end device.
Method for characterising the structure of a metal strip or sheet , - in which, during a measurement, a surface of the strip or sheet is irradiated with expanded X-rays , - said surface having a size of several square millimetres or several square centimetres, and - wherein the X-ray radiation has at least partially a continuous spectrum, - wherein the intensity pattern including a forward scattering or transmission of the X-ray radiation is measured in a spatially resolved manner such that a spatially resolved intensity pattern integrated over a spectral range of the X-ray radiation is obtained, and - in which an output variable dependent on the fluctuation of the measured intensity pattern is determined and output for assessing the grain size, grain size distribution and/or grain orientation. - in which, during a measurement, a surface of the strip or sheet is irradiated with expanded X-rays , - said surface having a size of several square millimetres or several square centimetres, and - wherein the X-ray radiation has at least partially a continuous spectrum, - wherein the intensity pattern including a forward scattering or transmission of the X-ray radiation is measured in a spatially resolved manner such that a spatially resolved intensity pattern integrated over a spectral range of the X-ray radiation is obtained, and - in which an output variable dependent on the fluctuation of the measured intensity pattern is determined and output for assessing the grain size, grain size distribution and/or grain orientation.
Annular rotary bezel system arranged to be mounted for rotation on a peripheral shoulder of a timepiece middle , said rotary bezel system being formed by a premounted module, said module comprising an annular bezel , an annular support element , a toothed element and spring means cooperating elastically with the toothed element, said spring means and said toothed element being arranged to be placed between the bezel and the support element so as to be held axially, the toothed element being arranged to be angularly integral with said middle, whereas the spring means are angularly integral with the bezel and with the support element so that the spring means , the bezel and the support element can rotate together to allow positive location of the position of the rotary bezel system with respect to the middle, said rotary bezel system being characterised in that it further comprises fixing means for fixing together the spring means , the support element and the bezel .