mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing zeotropic refrigerants in which the refrigerant is formed from a refrigerant blend of at least two components, the components being added to a container via dosing valves in the ratio of their respective mass fractions to the refrigerant, and the refrigerant blend being formed in the container, the concentration of the components remaining constant during removal of refrigerant from the container without further components being fed to the container characterised in that the temperature in the container is set by means of a control device such that the refrigerant is present exclusively in the gas phase, the temperature of the completely gaseous refrigerant being controlled by means of a temperature control means of the control device.
A method for identifying a device, comprising: acquiring, by a control device, device description information of a multimedia device; acquiring, by the control device, an appearance image of the multimedia device according to the device description information; displaying, by the control device, the appearance image of the multimedia device; wherein in response to a user selection, the control device establishes a connection with the multimedia device; wherein the acquiring, by the control device, the appearance image of the multimedia device according to the device description information, comprises: acquiring, by the control device, the appearance image of the multimedia device from a network according to the device description information; wherein the control device is a mobile phone. acquiring, by a control device, device description information of a multimedia device; acquiring, by the control device, an appearance image of the multimedia device according to the device description information; displaying, by the control device, the appearance image of the multimedia device; wherein in response to a user selection, the control device establishes a connection with the multimedia device; wherein the acquiring, by the control device, the appearance image of the multimedia device according to the device description information, comprises: acquiring, by the control device, the appearance image of the multimedia device from a network according to the device description information; wherein the control device is a mobile phone. acquiring, by the control device, the appearance image of the multimedia device from a network according to the device description information; wherein the control device is a mobile phone.
A sliding member comprising a base member and a diamond-like carbon (DLC) coating formed on the base member; wherein an indentation hardness, measured according to international standard ISO 14577, of the DLC coating decreases gradually from the base member side to a surface side of the DLC coating; wherein the DLC coating has an indentation hardness distribution, measured according to international standard ISO 14577, at 0 ≤ T/Ttotal ≤ 0.6 that is approximated by a first line having T/Ttotal as a variable and an indentation hardness distribution at 0.9 ≤ T/Ttotal ≤ 1 that is approximated by a second line having T/Ttotal as a variable, where Ttotal is a thickness of the DLC coating in μm, and T is a thickness position from the base member side of the DLC coating in μm; wherein H2 and T2 satisfy Expression and Expression , where H1 is the indentation hardness of the DLC coating in GPa at T = 0 μm on the first line, H2 is the indentation hardness of the DLC coating in GPa at an intersection between the first line and the second line, T2 is the thickness position at the intersection in μm, and H3 is the indentation hardness of the DLC coating in GPa at T = Ttotal on the second line, H 3 − H 1 × T 2 / Ttotal + H 1 < H 2 ≤ 0.9 × H 1 0.6 ≤ T 2 / Ttotal ≤ 0.9 and wherein H1 is 30 GPa or more and H3 is 5 GPa or more and 20 GPa or less.
A sealing corner section for sealing windows and doors against driving rain by forming a corner region of a tanking system, wherein the sealing corner section is open towards two adjacent sides and comprises a tanking bottom joined to two upwardly bent sides to form a tanking on two opposite adjacent sides, wherein each of the two upwardly bent sides comprises an inner tanking edge and a lateral tanking edge, said tanking bottom has a width measured perpendicular to the lateral tanking edge, characterized in that the tanking bottom is fan-shaped, i.e. said tanking bottom increases in width towards the outside, at least in sections.
Device for protection against transitory overvoltages, comprising: - a varistor comprising a varistor body and a first and a second electrodes disposed on either side of the varistor body , the varistor body being able to rise in temperature when the voltage imposed between the two electrodes crosses a first threshold, - a discharge tube comprising a tube body and a first and a second tube electrodes disposed on either side of the tube body, the tube body being able to generate an electric arc between the two electrodes and heat up when the voltage imposed between the two electrodes crosses a second threshold, - the second electrode of the varistor being designed to be connected to a first electrical line and the second electrode of the discharge tube being designed to be connected to a second electrical line , the device for protection being characterized in that it comprises : - a thermofusible soldering securing a first electrode of the discharge tube and a first electrode of the varistor , the thermofusible soldering being a conductor of electricity and being able to melt beyond a temperature threshold when the varistor or the discharge tube heats up, and - a restoring element exerting a restoring force tending to move the first electrode of the varistor away from the first electrode of the discharge tube in order to allow a separation between the first electrode of the varistor and the first electrode of the discharge tube during a melting of the thermofusible soldering . - a varistor comprising a varistor body and a first and a second electrodes disposed on either side of the varistor body , the varistor body being able to rise in temperature when the voltage imposed between the two electrodes crosses a first threshold, - a discharge tube comprising a tube body and a first and a second tube electrodes disposed on either side of the tube body, the tube body being able to generate an electric arc between the two electrodes and heat up when the voltage imposed between the two electrodes crosses a second threshold, - the second electrode of the varistor being designed to be connected to a first electrical line and the second electrode of the discharge tube being designed to be connected to a second electrical line , the device for protection being characterized in that it comprises : - a thermofusible soldering securing a first electrode of the discharge tube and a first electrode of the varistor , the thermofusible soldering being a conductor of electricity and being able to melt beyond a temperature threshold when the varistor or the discharge tube heats up, and - a restoring element exerting a restoring force tending to move the first electrode of the varistor away from the first electrode of the discharge tube in order to allow a separation between the first electrode of the varistor and the first electrode of the discharge tube during a melting of the thermofusible soldering .
Electrical system including: - an electrical device comprising a main module having, along a front-back direction (Av-Ar), a back face, called a main back face ; an auxiliary module having a back face, called an auxiliary back face , and wherein the auxiliary back face extends backwardly of the main back face , - a cold plate having a recessed stage and a projecting stage , extended frontwardly of the recessed stage , both stages being connected to each other by a step , wherein the main back face of the main module is pressed against and secured to the projecting stage and wherein the auxiliary back face of the auxiliary module is pressed against and secured to the recessed stage . - an electrical device comprising a main module having, along a front-back direction (Av-Ar), a back face, called a main back face ; an auxiliary module having a back face, called an auxiliary back face , and wherein the auxiliary back face extends backwardly of the main back face , - a cold plate having a recessed stage and a projecting stage , extended frontwardly of the recessed stage , both stages being connected to each other by a step , wherein the main back face of the main module is pressed against and secured to the projecting stage and wherein the auxiliary back face of the auxiliary module is pressed against and secured to the recessed stage .
A semiconductor processing member comprising: a body ; and a plasma spray coating provided on said body; characterized in that said plasma spray coating is an ABO or ABCO complex oxide solid solution composition selected from the group consisting of La 1.5 Ce 0.5 Zr 2 O 7 , Ce 0.25 Zr 0.75 O 2 , Ce 0.7 Gd 0.3 O 2 , and contains less than 50 ppm of any trace element, less than 20 ppm of any heavy metal, less than 10 ppm of any alkaline metal, and less than 2 ppm of each of Fe, Ni and Cu, whereby said plasma spray coating imparts both chlorine and fluorine plasma erosion resistance, reduces particle generation during plasma etching, and prevents spalling of said plasma spray coating during wet cleaning of said member. a body ; and a plasma spray coating provided on said body; characterized in that said plasma spray coating is an ABO or ABCO complex oxide solid solution composition selected from the group consisting of La 1.5 Ce 0.5 Zr 2 O 7 , Ce 0.25 Zr 0.75 O 2 , Ce 0.7 Gd 0.3 O 2 , and contains less than 50 ppm of any trace element, less than 20 ppm of any heavy metal, less than 10 ppm of any alkaline metal, and less than 2 ppm of each of Fe, Ni and Cu, whereby said plasma spray coating imparts both chlorine and fluorine plasma erosion resistance, reduces particle generation during plasma etching, and prevents spalling of said plasma spray coating during wet cleaning of said member.
A method of laser safety verification for a depth map sensor , comprising: illuminating via an image scene, during a first illumination phase , using a laser illumination system , a first cluster (304-1) of one or more first pixels (302-1) of a pixel array of the depth map sensor, while not illuminating a second cluster (304-2), different from the first cluster, of one or more second pixels (302-2) of the pixel array of the depth map sensor; detecting, during the first illumination phase, a level of illumination of the second cluster; and comparing the detected level of illumination of the second cluster (304-2), during the first illumination phase , with a first threshold value to verify the safety of the laser illumination system . illuminating via an image scene, during a first illumination phase , using a laser illumination system , a first cluster (304-1) of one or more first pixels (302-1) of a pixel array of the depth map sensor, while not illuminating a second cluster (304-2), different from the first cluster, of one or more second pixels (302-2) of the pixel array of the depth map sensor; detecting, during the first illumination phase, a level of illumination of the second cluster; and comparing the detected level of illumination of the second cluster (304-2), during the first illumination phase , with a first threshold value to verify the safety of the laser illumination system .
Method for calculating the surfaces of optical lenses , characterized by a) specifying a desired light distribution which can be generated by light passing through the calculated lens , b) deforming a first surface of the lens with the aim to create light source images of different sizes in the light distribution, c) deforming a second surface of the lens which is disposed opposite of the first surface with the aim of shifting all light source images so that they are disposed with their highest point immediately at or on a light-dark boundary of a resulting light distribution which is achieved by the lens having the deformed surfaces , d) determining a quality of the resulting light distribution by comparison with the specified light distribution, e) if the quality exceeds a predeterminable limit value, storing the calculated surfaces for the lens and terminating the procedure, f) otherwise deforming the first surface again with the aim of achieving a greater or lesser bundling of the light source images in the light distribution, g) deforming again the second surface with the aim to shift all light source images in such a way that they are disposed with their respective highest point at or on the light-dark boundary of the resulting light distribution, h) repeating steps (f) and (g) until the quality of the resulting light distribution exceeds the limit value, and i) storing the calculated surfaces for the lens and terminating the procedure. a) specifying a desired light distribution which can be generated by light passing through the calculated lens , b) deforming a first surface of the lens with the aim to create light source images of different sizes in the light distribution, c) deforming a second surface of the lens which is disposed opposite of the first surface with the aim of shifting all light source images so that they are disposed with their highest point immediately at or on a light-dark boundary of a resulting light distribution which is achieved by the lens having the deformed surfaces , d) determining a quality of the resulting light distribution by comparison with the specified light distribution, e) if the quality exceeds a predeterminable limit value, storing the calculated surfaces for the lens and terminating the procedure, f) otherwise deforming the first surface again with the aim of achieving a greater or lesser bundling of the light source images in the light distribution, g) deforming again the second surface with the aim to shift all light source images in such a way that they are disposed with their respective highest point at or on the light-dark boundary of the resulting light distribution, h) repeating steps (f) and (g) until the quality of the resulting light distribution exceeds the limit value, and i) storing the calculated surfaces for the lens and terminating the procedure.
A method for obtaining a beam hardening map used in beam hardening correction in X-ray Dark-Field imaging of a subject including at least a first material and a second material, the first and second material having different beam hardening properties, the method comprising: - an acquisition step of acquiring X-ray imaging data of the subject, - an obtainment step of obtaining information as to a contribution of the first material to the acquired X-ray imaging data, and - a map provision step of providing a beam hardening map as an input for the beam hardening correction in the X-ray Dark-Field imaging using the acquired X-ray imaging data, wherein the beam hardening map is based on the obtained information. - an acquisition step of acquiring X-ray imaging data of the subject, - an obtainment step of obtaining information as to a contribution of the first material to the acquired X-ray imaging data, and - a map provision step of providing a beam hardening map as an input for the beam hardening correction in the X-ray Dark-Field imaging using the acquired X-ray imaging data, wherein the beam hardening map is based on the obtained information.
A method for determining an amount of Angiotensin I (AngI) in a sample, the method comprising: (a) Incubating the sample under conditions suitable to allow plasma renin to generate AngI having a sequence NH2-DRVYIHPFHL-COOH (SEQ ID NO: 1) from angiotensinogen present in the sample; (b) adding a protease; (c) incubating the sample under conditions to allow the protease to hydrolyze the AngI to generate a defined AngI cleavage product; (d) ionizing the defined AngI cleavage product to produce one or more Ang I cleavage product ions detectable by mass spectrometry; and. (e) detecting and quantifying the one or more AngI cleavage product ions by mass spectrometry. (a) Incubating the sample under conditions suitable to allow plasma renin to generate AngI having a sequence NH2-DRVYIHPFHL-COOH (SEQ ID NO: 1) from angiotensinogen present in the sample; (b) adding a protease; (c) incubating the sample under conditions to allow the protease to hydrolyze the AngI to generate a defined AngI cleavage product; (d) ionizing the defined AngI cleavage product to produce one or more Ang I cleavage product ions detectable by mass spectrometry; and. (e) detecting and quantifying the one or more AngI cleavage product ions by mass spectrometry.
Medical device implantable in a human body said medical device comprising an electric measurement circuit , in which are connected at least two sensors the impedance of which varies as a function of a sensed physical parameter, a source of electrical power for powering the electric measurement circuit , an antenna for emitting an electromagnetic field as a function of the impedance of the electric measurement circuit , the medical device being characterized in that each of the sensors is associated with a switch for short circuiting the sensor in said measurement circuit , the medical device further comprising a system for controlling the switches in order to successively command the opening or closing of the switches one after another, according to determined configurations, and wherein the system for controlling the switches comprises a control circuit powered by the electrical power source , the control system being configured to normally keep the switches closed and to open them successively then close them again so that only one single switch is open at any time.
Method for providing map data by way of a central system to a motor vehicle , wherein the central system has a process computing device comprising one or more process computers , and a memory computing device comprising a plurality of memory computers , each serving to store partial route networks in the form of partial map data, each representing a geographical area section, comprising the following steps: - capturing (S1) vehicle data from moving motor vehicles and transmitting them to a process computing device of the central system , wherein the vehicle data are provided with a corresponding position stamp, which delivers a current vehicle position assigned to the respective vehicle data, - retrieving (S4) a driving situation from a memory computing device depending on the vehicle position assigned to the vehicle data by way of the process computing device , wherein the driving situation indicates the route topology before or in which a motor vehicle is located at the current vehicle position; - selecting (S5) at least one analysis algorithm according to the driving situation; - transmitting (S5) the analysis algorithm or a corresponding indication together with the vehicle data to the memory computing device , wherein one of a plurality of memory computers of the memory computing device is selected depending on the vehicle position and/or the driving situation; - implementing the analysis algorithm on the basis of the vehicle data in the selected memory computer of the memory computing device in order to update the map data (S6). - capturing (S1) vehicle data from moving motor vehicles and transmitting them to a process computing device of the central system , wherein the vehicle data are provided with a corresponding position stamp, which delivers a current vehicle position assigned to the respective vehicle data, - retrieving (S4) a driving situation from a memory computing device depending on the vehicle position assigned to the vehicle data by way of the process computing device , wherein the driving situation indicates the route topology before or in which a motor vehicle is located at the current vehicle position; - selecting (S5) at least one analysis algorithm according to the driving situation; - transmitting (S5) the analysis algorithm or a corresponding indication together with the vehicle data to the memory computing device , wherein one of a plurality of memory computers of the memory computing device is selected depending on the vehicle position and/or the driving situation; - implementing the analysis algorithm on the basis of the vehicle data in the selected memory computer of the memory computing device in order to update the map data (S6).
A combination of: (a) a stem cell mobiliser selected from granulocyte colony stimulating factor (G-CSF), filgrastim, lenograstim and pegfilgrastim; and (b) an antagonist of TLR4, for use in a method of treating or preventing liver failure in an individual in need thereof. (a) a stem cell mobiliser selected from granulocyte colony stimulating factor (G-CSF), filgrastim, lenograstim and pegfilgrastim; and (b) an antagonist of TLR4,
A guide for accurate insertion of medical devices during stereotactic surgical procedures comprising: an opening; a first portion configured to attach to a circumferential raised attachment portion of an anchor bolt ; a second portion configured to attach to a distal attachment portion of an ultrasound probe assembly ; and a first and second encoder; wherein the first encoder is configured to determine a position based on motion of the first encoder along a first path and to output a first signal indicating the position to a controller, the second encoder is configured to determine a position based on motion of the second encoder along a second path and to output a second signal indicating the position to a controller, and movement along the first and second paths will update a model of a region of interest in real time based on the positioning data provided by the first and second output signals from the first and second encoders. an opening; a first portion configured to attach to a circumferential raised attachment portion of an anchor bolt ; a second portion configured to attach to a distal attachment portion of an ultrasound probe assembly ; and a first and second encoder; wherein the first encoder is configured to determine a position based on motion of the first encoder along a first path and to output a first signal indicating the position to a controller, the second encoder is configured to determine a position based on motion of the second encoder along a second path and to output a second signal indicating the position to a controller, and movement along the first and second paths will update a model of a region of interest in real time based on the positioning data provided by the first and second output signals from the first and second encoders.
A pneumatic tire for a motorcycle comprising a tread portion formed into a ring shape, the tread portion being provided with circumferential shallow grooves formed by extending shallow grooves having a width of 0.1 to 2.0 mm and a depth of 0.1 to 2.0 mm in a tire circumferential direction, wherein a width of the circumferential shallow grooves provided in the tread portion is changed in a direction of extension of the circumferential shallow grooves.