mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a housing of an electronic module , wherein - leads , which each have a bondable lead surface , are injection moulded with a plastic in a plastic injection mould , wherein a pin recess is produced for each lead , which pin recess passes through the plastic and comprises a lead recess in the lead , and wherein at least one part of each bondable lead surface is not injectionmoulded, and - an electrically conductive pin element is inserted into at least one pin recess , wherein the pin element is guided through the lead recess of the pin recess , characterised in that the injection moulded tool has a stamp component and a matrix component for each pin recess to be produced, said components sealing the lead recess of the pin recess on opposing sides when the injection moulded tool is closed and being injection moulded with the plastic after the injection moulded tool is closed. - leads , which each have a bondable lead surface , are injection moulded with a plastic in a plastic injection mould , wherein a pin recess is produced for each lead , which pin recess passes through the plastic and comprises a lead recess in the lead , and wherein at least one part of each bondable lead surface is not injectionmoulded, and - an electrically conductive pin element is inserted into at least one pin recess , wherein the pin element is guided through the lead recess of the pin recess , characterised in that the injection moulded tool has a stamp component and a matrix component for each pin recess to be produced, said components sealing the lead recess of the pin recess on opposing sides when the injection moulded tool is closed and being injection moulded with the plastic after the injection moulded tool is closed.
A stimulation device (11; 21; 31) for stimulating a region inside a human body, comprising: - a first part (11a; 21a; 31a) configured to be at least partly inserted into a human body; - a pressure field generating device configured to generate a pneumatic alternating pressure field; and - a pressure chamber coupled to the pressure field generating device and configured to receive an alternating pressure field generated by the pressure field generating device , wherein - the pressure chamber is arranged in the first part (11a; 21a; 31a) and has an opening formed in the first part (11a; 21a; 31a); - the first part (11a; 21a; 31a), the pressure chamber and the opening are configured such that an alternating pressure field in the pressure chamber can be applied via the opening to a region to be stimulated inside the human body; characterised in that - a sealing device is provided which is formed on the first part (11a; 21a; 31a) peripherally around the opening of the pressure chamber and is configured to seal the pressure chamber from the environment. - a first part (11a; 21a; 31a) configured to be at least partly inserted into a human body; - a pressure field generating device configured to generate a pneumatic alternating pressure field; and - a pressure chamber coupled to the pressure field generating device and configured to receive an alternating pressure field generated by the pressure field generating device , - the pressure chamber is arranged in the first part (11a; 21a; 31a) and has an opening formed in the first part (11a; 21a; 31a); - the first part (11a; 21a; 31a), the pressure chamber and the opening are configured such that an alternating pressure field in the pressure chamber can be applied via the opening to a region to be stimulated inside the human body; characterised in that - a sealing device is provided which is formed on the first part (11a; 21a; 31a) peripherally around the opening of the pressure chamber and is configured to seal the pressure chamber from the environment.
A method of thawing an organic material, such as frozen organic material, such as pieces of frozen fish, said method comprising: - arranging said organic material in a thawing compartment of a thawing apparatus, wherein the organic material is subjected to a thawing medium; - thawing said organic material by circulating said thawing medium reaching within said thawing compartment a first temperature, T1 between 10°C and 30°C, through said thawing compartment; - monitoring a heat transfer resistance of said organic material by monitoring temperature variations from T1 of said thawing medium during said circulating and by monitoring a frequency and/or an amplitude of said temperature variations of said thawing medium from T1 during said circulating to detect a shift between outer heat resistance transferral and inner heat resistance transferral of said organic material; wherein said shift is detected when said monitoring shows that said monitored frequency and/or amplitude of said temperature variations from T1 differ/s at least by 5% from an average amplitude value and/or an average frequency value, wherein the average amplitude or frequency is calculated after measured temperature has over-shoot or under-shoot T1 at least two times for a specific time frame and when said shift is detected: - lowering the temperature of said thawing medium to a second temperature, T2, wherein T2 is lower than T1; and - thawing said organic material further by circulating said thawing medium reaching said T2 through said thawing compartment. - arranging said organic material in a thawing compartment of a thawing apparatus, wherein the organic material is subjected to a thawing medium; - thawing said organic material by circulating said thawing medium reaching within said thawing compartment a first temperature, T1 between 10°C and 30°C, through said thawing compartment; - monitoring a heat transfer resistance of said organic material by monitoring temperature variations from T1 of said thawing medium during said circulating and by monitoring a frequency and/or an amplitude of said temperature variations of said thawing medium from T1 during said circulating to detect a shift between outer heat resistance transferral and inner heat resistance transferral of said organic material; - lowering the temperature of said thawing medium to a second temperature, T2, wherein T2 is lower than T1; and - thawing said organic material further by circulating said thawing medium reaching said T2 through said thawing compartment.
Cosmetic preparations, especially shampoos, which comprise a) an aqueous phase comprising one or more boundary- or surface-active substance or substances, b) one or more guar hydroxypropyltrimethylammonium chlorides which is or are selected from the group of derivatives which has or have charge densities of 0.4 to 1.0 meq/g, preferably 0.6 to 0.8 meq/g, and has or have a molecular weight of 1 000 000 to 3 000 000 g/mol, preferably 2 000 000 to 3 000 000 g/mol, c) one or more silicone oil emulsions selected from the group of dimethiconol emulsion polymerization types having viscosities of 800 000 to 1 300 000 mPas, preferably 800 000 mPas, and a droplet size of 200 to 350 nm, preferably 200 nm, corresponding to a concentration of 1 to 2% by weight, based on the total weight of the preparation. a) an aqueous phase comprising one or more boundary- or surface-active substance or substances, b) one or more guar hydroxypropyltrimethylammonium chlorides which is or are selected from the group of derivatives which has or have charge densities of 0.4 to 1.0 meq/g, preferably 0.6 to 0.8 meq/g, and has or have a molecular weight of 1 000 000 to 3 000 000 g/mol, preferably 2 000 000 to 3 000 000 g/mol, c) one or more silicone oil emulsions selected from the group of dimethiconol emulsion polymerization types having viscosities of 800 000 to 1 300 000 mPas, preferably 800 000 mPas, and a droplet size of 200 to 350 nm, preferably 200 nm, corresponding to a concentration of 1 to 2% by weight, based on the total weight of the preparation.
A method for estimating a completion time for cooking food using a food thermometer , the method comprising: receiving an indication of an ambient temperature near the food using an ambient temperature sensor of the food thermometer ; and receiving an indication of a food temperature at an interior portion of the food using one or more thermal sensors of the food thermometer ; characterized in that the method further comprises: determining a temperature rise value for the food based on a food type for the food and the indication of the ambient temperature, wherein the food type is selected from a plurality of food types, with different food types being associated with different temperature rise values for the same indication of the ambient temperature; determining a rate at which the indication of the food temperature changes by measuring an amount of time for the indication of the food temperature to increase by the determined temperature rise value; and estimating the completion time based on at least the determined rate at which the indication of the food temperature changes. receiving an indication of an ambient temperature near the food using an ambient temperature sensor of the food thermometer ; and receiving an indication of a food temperature at an interior portion of the food using one or more thermal sensors of the food thermometer ; characterized in that the method further comprises: determining a temperature rise value for the food based on a food type for the food and the indication of the ambient temperature, wherein the food type is selected from a plurality of food types, with different food types being associated with different temperature rise values for the same indication of the ambient temperature; determining a rate at which the indication of the food temperature changes by measuring an amount of time for the indication of the food temperature to increase by the determined temperature rise value; and estimating the completion time based on at least the determined rate at which the indication of the food temperature changes. determining a temperature rise value for the food based on a food type for the food and the indication of the ambient temperature, wherein the food type is selected from a plurality of food types, with different food types being associated with different temperature rise values for the same indication of the ambient temperature; determining a rate at which the indication of the food temperature changes by measuring an amount of time for the indication of the food temperature to increase by the determined temperature rise value; and estimating the completion time based on at least the determined rate at which the indication of the food temperature changes.
An antisense oligonucleotide (ASO) suitable for use in a method of inhibiting, in a gene-specific manner, in a eukaryotic cell, nonsense-mediated decay (NMD) of an mRNA, wherein: (a) said mRNA is encoded by a nucleic acid that contains a disease-causing premature termination codon (PTC) or a naturally-occurring PTC; (b) the ASO hybridizes to a region of the mRNA that is from about 1 to about 50 nucleotides upstream of an exon-exon junction that (i) is located downstream from the PTC and (ii) when marked by deposition of exon junction complexes (EJC), marks the mRNA for NMD; and (c) the ASO inhibits deposition of the EJC at the exon-exon junction and inhibits NMD of the mRNA that contains the PTC; wherein the method comprises contacting the eukaryotic cell with the ASO under conditions wherein the ASO enters the cell in sufficient quantity to inhibit deposition of EJC at the exon-exon junction. (a) said mRNA is encoded by a nucleic acid that contains a disease-causing premature termination codon (PTC) or a naturally-occurring PTC; (b) the ASO hybridizes to a region of the mRNA that is from about 1 to about 50 nucleotides upstream of an exon-exon junction that (i) is located downstream from the PTC and (ii) when marked by deposition of exon junction complexes (EJC), marks the mRNA for NMD; and (c) the ASO inhibits deposition of the EJC at the exon-exon junction and inhibits NMD of the mRNA that contains the PTC;
Battery terminal, comprising - a pressed part on which a holder is formed that can be applied in an application direction to one pole of a battery, - screw devices for fastening the holder by means of clamping to the pole of the battery, where the screw devices , can essentially be actuated or screwed in in the application direction of the holder , - clamping devices that act together with the screw devices for fastening the holder by means of clamping to the pole of the battery, where the clamping devices comprise two clamping elements that are connected to the pressed part and/or come into contact with the same, characterized in that - with the exception of the screw devices and the at least one clamping element , the battery terminal is designed as a single-piece pressed part , - the two clamping elements each comprise a tilted surface that includes an angle (β) unequal to 0° and unequal to 90° to the application direction, - the holder is open or features an aperture , where the pressed part features two legs that border the aperture of the holder and extend away from the holder , - the at least one clamping element is arranged at one of the legs of the pressed part , where a clamping element is arranged on each of the two legs , - the at least one clamping element is firmly connected to one of the legs of the pressed part by means of a stamping with one of the legs . - the screw devices comprise at least one tilted surface that include an angle (a) unequal to 0° and unequal to 90° to the application direction. - a pressed part on which a holder is formed that can be applied in an application direction to one pole of a battery, - screw devices for fastening the holder by means of clamping to the pole of the battery, where the screw devices , can essentially be actuated or screwed in in the application direction of the holder , - clamping devices that act together with the screw devices for fastening the holder by means of clamping to the pole of the battery, where the clamping devices comprise two clamping elements that are connected to the pressed part and/or come into contact with the same, characterized in that - with the exception of the screw devices and the at least one clamping element , the battery terminal is designed as a single-piece pressed part , - the two clamping elements each comprise a tilted surface that includes an angle (β) unequal to 0° and unequal to 90° to the application direction, - the holder is open or features an aperture , where the pressed part features two legs that border the aperture of the holder and extend away from the holder , - the at least one clamping element is arranged at one of the legs of the pressed part , where a clamping element is arranged on each of the two legs , - the at least one clamping element is firmly connected to one of the legs of the pressed part by means of a stamping with one of the legs . - the screw devices comprise at least one tilted surface that include an angle (a) unequal to 0° and unequal to 90° to the application direction.
A cleaning function control device for controlling a cleaning function of a cleaning robot , the cleaning function control device comprising: an indoor information obtaining unit which uses at least one of a LiDAR sensor, a time of flight, TOF, sensor, and a rotatable laser range finder to obtain information on each point in the indoor space as three-dimensional point cloud information; a floor state determining unit which determines a state of the floor based on information on first points related to the floor of the indoor space; a floor material determining unit which determines a material of the floor based on the information on the first points; and a cleaning function control unit which controls a cleaning function of the indoor space based on the state of the floor and the material of the floor, wherein the floor state determining unit collects the information on the first points to generate information related to an undulation change of the floor and determines the state of the floor based on the information related to the undulation change of the floor, and wherein the cleaning function control device is configured to separate a floor portion in accordance with an area where the cleaning robot is driven from the three-dimensional point cloud information and said cleaning robot being characterized in that it is further configured to classify characteristics of the material of the floor portion based on position and intensity information included in the point cloud information corresponding to the floor portion. an indoor information obtaining unit which uses at least one of a LiDAR sensor, a time of flight, TOF, sensor, and a rotatable laser range finder to obtain information on each point in the indoor space as three-dimensional point cloud information; a floor state determining unit which determines a state of the floor based on information on first points related to the floor of the indoor space; a floor material determining unit which determines a material of the floor based on the information on the first points; and a cleaning function control unit which controls a cleaning function of the indoor space based on the state of the floor and the material of the floor, wherein the floor state determining unit collects the information on the first points to generate information related to an undulation change of the floor and determines the state of the floor based on the information related to the undulation change of the floor, and wherein the cleaning function control device is configured to separate a floor portion in accordance with an area where the cleaning robot is driven from the three-dimensional point cloud information and said cleaning robot being characterized in that it is further configured to classify characteristics of the material of the floor portion based on position and intensity information included in the point cloud information corresponding to the floor portion.
A system, comprising: a fiber or plastic based package comprising conductors for transferring package data from the fiber or plastic based package to an interface ; the interface adapted to attach and connect, in a detachable manner, the fiber or plastic based package to a module ; and the module ; wherein the interface comprises electrically conductive contact points through which the conductors connect to electric parts of the module so that the package data is configured to be transferred through the electrically conductive contact points to the module; characterized in that the module comprises a wireless transmitter having a modem configured to mobile communications via a mobile network, and a controller configured to synchronize its clock to system clock received over a wireless link provided by the modem. a fiber or plastic based package comprising conductors for transferring package data from the fiber or plastic based package to an interface ; the interface adapted to attach and connect, in a detachable manner, the fiber or plastic based package to a module ; and the module ; wherein the interface comprises electrically conductive contact points through which the conductors connect to electric parts of the module so that the package data is configured to be transferred through the electrically conductive contact points to the module; characterized in that the module comprises a wireless transmitter having a modem configured to mobile communications via a mobile network, and a controller configured to synchronize its clock to system clock received over a wireless link provided by the modem.
A decoding device comprising: demultiplexing means configured to demultiplex input encoded data into low frequency encoded data and an index for obtaining an estimating coefficient used for generation of a high frequency audio signal; low frequency decoding means configured to decode said low frequency encoded data to generate a low frequency audio signal; sub-band dividing means configured to divide the band of said low frequency audio signal into a plurality of low frequency sub-bands to generate a low frequency sub-band signal for each of said low frequency sub-bands; feature amount calculating means configured to calculate feature amount that expresses a feature of said encoded data using at least one of said low frequency sub-band signal and said low frequency audio signal; high frequency sub-band power calculating means configured to calculate a high frequency sub-band power of the high frequency sub-band signal of a high frequency sub-band by multiplying said feature amount by said estimating coefficient determined by said index of a plurality of estimating coefficients prepared beforehand regarding each of a plurality of high frequency sub-bands making up the band of said high frequency audio signal, and obtaining a sum of said feature amount by which said estimating coefficient has been multiplied; and high frequency signal generating means configured to generate said high frequency audio signal using said high frequency sub-band power and said low frequency sub-band signal. demultiplexing means configured to demultiplex input encoded data into low frequency encoded data and an index for obtaining an estimating coefficient used for generation of a high frequency audio signal; low frequency decoding means configured to decode said low frequency encoded data to generate a low frequency audio signal; sub-band dividing means configured to divide the band of said low frequency audio signal into a plurality of low frequency sub-bands to generate a low frequency sub-band signal for each of said low frequency sub-bands; feature amount calculating means configured to calculate feature amount that expresses a feature of said encoded data using at least one of said low frequency sub-band signal and said low frequency audio signal; high frequency sub-band power calculating means configured to calculate a high frequency sub-band power of the high frequency sub-band signal of a high frequency sub-band by multiplying said feature amount by said estimating coefficient determined by said index of a plurality of estimating coefficients prepared beforehand regarding each of a plurality of high frequency sub-bands making up the band of said high frequency audio signal, and obtaining a sum of said feature amount by which said estimating coefficient has been multiplied; and high frequency signal generating means configured to generate said high frequency audio signal using said high frequency sub-band power and said low frequency sub-band signal.
A method comprising: receiving, by a data processing system in a low voltage mode, a request for a high voltage mode; in response to determining that a remaining amount of high voltage credits exceeds a voltage switch threshold value, starting a high voltage timer; switching to a high voltage mode; and switching back to the low voltage mode in response to an indication; and in response to determining that low voltage credits have been consumed and a cycle has ended, banking remaining high voltage credits. receiving, by a data processing system in a low voltage mode, a request for a high voltage mode; in response to determining that a remaining amount of high voltage credits exceeds a voltage switch threshold value, starting a high voltage timer; switching to a high voltage mode; and switching back to the low voltage mode in response to an indication; and starting a high voltage timer; switching to a high voltage mode; and switching back to the low voltage mode in response to an indication; and in response to determining that low voltage credits have been consumed and a cycle has ended, banking remaining high voltage credits.
A process for the telomerization of butadiene comprising reacting, in a reaction zone in the liquid phase, 1,3-butadiene, and an active hydrogen containing compound, wherein the active hydrogen containing compound is an alkanol selected from alcohols having from 1 to 10 carbon atoms, in the presence of a catalyst that includes a Group VIII transition metal and a phosphine ligand selected from bis(4-chlorophenyl)(2-methoxy-phenyl)phosphine and bis(4-fluorophenyl)(2-methoxyphenyl)phosphine, and a catalyst promoter; under conditions such that a reaction product including at least one alkoxy-substituted octadiene is formed.