mhurhangee/patent-ind-claim-en huggingface dataset:
Household dishwasher with a dishwasher cavity for receiving dishes, glasses, cutlery or a similar item to be washed, wherein the household dishwasher is provided with at least one heat pump which can be operated during part of a wash cycle (SG) and which comprises a condenser and an evaporator in a circuit through which heat pump medium flows, wherein at least two essentially flat tanks are assigned to the evaporator , of which at least one is an inner tank between at least one outer tank and the dishwasher cavity and can be used either as a heat coupler of the outer tank with respect to the dishwasher cavity when liquid is filled or as a thermal insulator of the outer tank with respect to the dishwasher cavity when air is filled, and wherein parts of the evaporator are arranged in the at least one outer tank , characterised in that during the wash cycle (SG) the at least one outer tank retains all the liquid, which is contained therein at the start of the first operation of the heat pump during the wash cycle (SG) until the end of the wash cycle (SG), wherein the liquid contained in the at least one outer tank at the end of the wash cycle (SG) can be used at least partially in a next wash cycle (SG) as part of the washing liquor in order to prerinse the item to be washed and for this purpose can be introduced into the dishwasher cavity .
A disposable fluid pump comprising: a housing including first and second faces and a sidewall extending between the first and second faces , the housing defining a chamber and an inlet and an outlet in fluid communication with the chamber ; and an impeller rotatably mounted within the chamber and including a plurality of flexible vanes , wherein one of the first and second faces of the housing defines an opening , and the impeller includes a rigid hub associated with the flexible vanes and defining a socket accessible through said opening and configured to receive a shaft for rotation of the impeller within the chamber , wherein the rigid hub includes a shaft portion that extends outside of the chamber , through the opening defined in one of the housing faces . a housing including first and second faces and a sidewall extending between the first and second faces , the housing defining a chamber and an inlet and an outlet in fluid communication with the chamber ; and one of the first and second faces of the housing defines an opening , and the impeller includes a rigid hub associated with the flexible vanes and defining a socket accessible through said opening and configured to receive a shaft for rotation of the impeller within the chamber , wherein the rigid hub includes a shaft portion that extends outside of the chamber , through the opening defined in one of the housing faces .
A computer-implemented method for mixed mode automated driving, wherein mixed mode driving comprises recommending driving operations including a first driving operation designated to autonomous control and a second driving operation designated to manual control, the method comprising: accessing a profile associated with an automated driving trip; determining a list of driving operations for the automated driving trip; and determining, based on the profile, recommended driving operations included in the list of operations, wherein the profile includes compatibility data for the first driving operation and the second driving operation, the compatibility data defining groups of compatible driving operations where driving operations in groups are designated to either manual or autonomous control. accessing a profile associated with an automated driving trip; determining a list of driving operations for the automated driving trip; and determining, based on the profile, recommended driving operations included in the list of operations, wherein the profile includes compatibility data for the first driving operation and the second driving operation, the compatibility data defining groups of compatible driving operations where driving operations in groups are designated to either manual or autonomous control.
A method for managing devices for responding to an incident, the method comprising: monitoring, by a profile manager device , inputs related to availability and/or loading of one or more networks for use in responding to the incident, inputs related to each of a plurality of devices for responding to the incident, and inputs related to the incident; determining, by the profile manager device for the plurality of devices for responding to the incident and based on the inputs , (i) application requirements identifying a set of applications for execution by the plurality of devices in responding to the incident and (ii) device profile configurations setting forth parameters for the plurality of devices to operate on the one or more networks during the incident; and for each of the plurality of devices , causing, by the profile manager device , applications to be provided to the plurality of devices based on the determined application requirements and providing , by the profile manager device , the device profile configurations to the plurality of devices . monitoring, by a profile manager device , inputs related to availability and/or loading of one or more networks for use in responding to the incident, inputs related to each of a plurality of devices for responding to the incident, and inputs related to the incident; determining, by the profile manager device for the plurality of devices for responding to the incident and based on the inputs , (i) application requirements identifying a set of applications for execution by the plurality of devices in responding to the incident and (ii) device profile configurations setting forth parameters for the plurality of devices to operate on the one or more networks during the incident; and for each of the plurality of devices , causing, by the profile manager device , applications to be provided to the plurality of devices based on the determined application requirements and providing , by the profile manager device , the device profile configurations to the plurality of devices .
Apparatus for providing a fingerprint of an input signal , wherein the apparatus is configured to determine intensity values (108_1:108_2) for a plurality of time-frequency regions (118_1:118_2) of the input signal , wherein the apparatus is configured to compare the intensity values (108_1:108_2) associated with different time-frequency regions of the plurality of time-frequency regions (118_1:118_2) using a binary comparison, to obtain individual values (112_1:112_2) of the fingerprint based on the binary comparison of intensity values (108_1:108_2) associated with two time-frequency regions (118_1:118_2), characterized in that the plurality of time-frequency regions (118_1:118_2) are defined by a rotating kernel, rotating around a spectral bin of a time-frequency representation of the input signal , and the rotating kernel extends over at least two spectral bins of the time-frequency representation of the input signal . wherein the apparatus is configured to determine intensity values (108_1:108_2) for a plurality of time-frequency regions (118_1:118_2) of the input signal , wherein the apparatus is configured to compare the intensity values (108_1:108_2) associated with different time-frequency regions of the plurality of time-frequency regions (118_1:118_2) using a binary comparison, to obtain individual values (112_1:112_2) of the fingerprint based on the binary comparison of intensity values (108_1:108_2) associated with two time-frequency regions (118_1:118_2), characterized in that the plurality of time-frequency regions (118_1:118_2) are defined by a rotating kernel, rotating around a spectral bin of a time-frequency representation of the input signal , and the rotating kernel extends over at least two spectral bins of the time-frequency representation of the input signal .
A wireless module (100-600), comprising: a package substrate having a first side and a second side opposing the first side, wherein the package substrate comprises one or more build-up layers ; an electronic component provided on the first side of the package substrate ; an antenna package attached to the second side of the package substrate and having at least one radiative element, wherein the antenna package comprises one or more build-up layers; and a cap package attached to the first side of the package substrate and overlying the electronic component , wherein the cap package comprises build-up layers including a first build-up layer, wherein at least a portion of the first build-up layer is removed to define a cavity , wherein the electronic component is at least partially disposed within the cavity. a package substrate having a first side and a second side opposing the first side, wherein the package substrate comprises one or more build-up layers ; an electronic component provided on the first side of the package substrate ; an antenna package attached to the second side of the package substrate and having at least one radiative element, wherein the antenna package comprises one or more build-up layers; and a cap package attached to the first side of the package substrate and overlying the electronic component , wherein the cap package comprises build-up layers including a first build-up layer, wherein at least a portion of the first build-up layer is removed to define a cavity , wherein the electronic component is at least partially disposed within the cavity.
An apparatus comprising: a sterile cover including; a first portion that defines a first cavity such that the first portion is configured to secure a non-sterile inverter of a wide angle viewing attachment for a microscope within the first cavity , a second portion integral with the first portion , said second portion defines a second cavity continuous with the first cavity , said second portion configured to secure an imaging lens of the wide angle viewing attachment for the microscope within the second cavity ; and a tab provided along the first portion , wherein the tab is provided to disengage the first portion from the non-sterile inverter and prevent reuse of the sterile cover . a sterile cover including; a first portion that defines a first cavity such that the first portion is configured to secure a non-sterile inverter of a wide angle viewing attachment for a microscope within the first cavity , a second portion integral with the first portion , said second portion defines a second cavity continuous with the first cavity , said second portion configured to secure an imaging lens of the wide angle viewing attachment for the microscope within the second cavity ; and a tab provided along the first portion , wherein the tab is provided to disengage the first portion from the non-sterile inverter and prevent reuse of the sterile cover .
A light-emitting device comprising: a support member (110; 390); a reflective layer (130; 360) on the support member; a first light-transmitting electrode layer (150; 340) on the reflective layer; a light-emitting structure (170; 320) on the first light-transmitting electrode layer, the light-emitting structure including a semiconductor layer having a first conductivity type, an active layer and a semiconductor layer having a second conductivity type; a current blocking layer (160; 330) interposed between the first light-transmitting electrode layer (150; 340) and the light-emitting structure (170; 320); and a luminescence layer (140; 350) interposed between the reflective layer (130; 360) and the first light-transmitting electrode layer (150; 340), wherein the luminescence layer comprises a first layer including an R phosphor, a second layer including a G phosphor, and a third layer including a B phosphor. a support member (110; 390); a reflective layer (130; 360) on the support member; a first light-transmitting electrode layer (150; 340) on the reflective layer; a light-emitting structure (170; 320) on the first light-transmitting electrode layer, the light-emitting structure including a semiconductor layer having a first conductivity type, an active layer and a semiconductor layer having a second conductivity type; a current blocking layer (160; 330) interposed between the first light-transmitting electrode layer (150; 340) and the light-emitting structure (170; 320); and a luminescence layer (140; 350) interposed between the reflective layer (130; 360) and the first light-transmitting electrode layer (150; 340), wherein the luminescence layer comprises a first layer including an R phosphor, a second layer including a G phosphor, and a third layer including a B phosphor.
A computing system operable to facilitate software testing assurance, the system comprising: a processor ; a memory in operable communication with the processor; and an assurance code , which upon execution with the processor performs a software testing assurance method that includes (a) receiving a code update submission S-current, the submission S-current including a portion P-current which includes an update to a source code , (b) determining that the portion P-current is at least partially covered by a test-set TS-current of a testing suite , (c) ascertaining whether the test-set TS-current differs from a test-set TS-prior which at least partially covered a portion P-prior of a code update submission S-prior, where S-prior is older than S-current, and where P-current updates P-prior, and (d) flagging at least one item to indicate a lack of testing assurance for the P-current update based on the TS-current test-set when the ascertaining ascertains that TS-current does not differ from TS-prior, wherein the flagging raises a flag of at least one of the following items: S-current, P-current, or TS-current. a processor ; a memory in operable communication with the processor; and an assurance code , which upon execution with the processor performs a software testing assurance method that includes (a) receiving a code update submission S-current, the submission S-current including a portion P-current which includes an update to a source code , (b) determining that the portion P-current is at least partially covered by a test-set TS-current of a testing suite , (c) ascertaining whether the test-set TS-current differs from a test-set TS-prior which at least partially covered a portion P-prior of a code update submission S-prior, where S-prior is older than S-current, and where P-current updates P-prior, and (d) flagging at least one item to indicate a lack of testing assurance for the P-current update based on the TS-current test-set when the ascertaining ascertains that TS-current does not differ from TS-prior, wherein the flagging raises a flag of at least one of the following items: S-current, P-current, or TS-current.
System for controlling the drivability mode of a hybrid motor vehicle that is equipped with a heat engine and an electric motor , comprising: - first measuring means for measuring driving conditions of the vehicle, - second measuring means for measuring the level of charge in the battery of the vehicle, - first control means for controlling the heat engine , - second control means for controlling the electric motor , and - computing means that are able to transmit a first activation signal (ACT 1 ) for activating the heat engine and a second activation signal (ACT 2 ) for activating the electric motor , depending on the driving conditions and on the charge level, the system further comprising third measuring means for measuring at least one characteristic relating to the operation of the heating system of the vehicle, the first activation signal (ACT 1 ) and the second activation signal (ACT 2 ) being prepared on the basis of the characteristic relating to the operation of the heating system, characterized in that the computing means comprise a first comparison unit that is able to calculate a first deviation signal (ε NC ) for the deviation of the charge level of the battery of the vehicle on the basis of the level of charge and a predefined reference charge level (NC REF ), and in that the computing means comprise a first proportional integral derivative corrector that is able to transmit a first correction signal (S COR1 ) for the charge level of the battery on the basis of the first deviation signal (ε NC ) calculated by the first comparison unit . - first measuring means for measuring driving conditions of the vehicle, - second measuring means for measuring the level of charge in the battery of the vehicle, - first control means for controlling the heat engine , - second control means for controlling the electric motor , and - computing means that are able to transmit a first activation signal (ACT 1 ) for activating the heat engine and a second activation signal (ACT 2 ) for activating the electric motor , depending on the driving conditions and on the charge level,
A method for producing a granular material of sintered magnesia, characterized in that the sintered magnesia is produced by sintering of pressed articles, in particular pellets, of MgO meal with a grain size ≤ 200 μm, preferably of caustic MgO meal, and subsequent mechanical comminution of the pressed articles, wherein the sintering takes place in such a way that the granular material has a grain porosity (total porosity) according to DIN EN 993-1:1195-04 and DIN EN 993-18:2000-11 of 15 to 38 vol%, preferably 20 to 38 vol%, wherein sintering takes place at a temperature between 1100-1600° C, wherein the firing duration at the maximum temperature is 0.5 h to 7 h, preferably 2 h to 6h, and the temperature regime of the sintering is set in such a way that the granular material has the grain porosity.
A method comprising: receiving , by a dialog system from a user, a spoken utterance; processing , by the dialog system, the spoken utterance to identify a term for disambiguation; determining , by the dialog system, a context level, of a plurality of predefined context levels, for the term for disambiguation, wherein the plurality of predefined context levels include an immediate context, a short-term context, a medium-term context, and a long-term context; based on the determined context level, identifying , by the dialog system, a value for the term using a database storing a plurality of values for the user in association with the context level; and disambiguating , by the dialog system, the term using the identified value. receiving , by a dialog system from a user, a spoken utterance; processing , by the dialog system, the spoken utterance to identify a term for disambiguation; determining , by the dialog system, a context level, of a plurality of predefined context levels, for the term for disambiguation, wherein the plurality of predefined context levels include an immediate context, a short-term context, a medium-term context, and a long-term context; based on the determined context level, identifying , by the dialog system, a value for the term using a database storing a plurality of values for the user in association with the context level; and disambiguating , by the dialog system, the term using the identified value.
System for charging at least one energy storage cell in a controllable energy store , which serves to control and supply electrical energy to an n-phase electric machine , where n ≥ 2, wherein - the controllable energy store has n parallel energy supply paths (3-1, 3-2, 3-3), which • each have at least two energy storage modules connected in series, which each comprise at least one electrical energy storage cell with an associated controllable coupling unit , • are firstly connected to a reference rail (T-) and • secondly connected to a respective phase (U, V, W) of the electric machine , - the coupling units interrupt the respective energy supply path (3-1, 3-2; 3-3) or bypass the respectively associated energy storage cells or connect the respectively associated energy storage cells into the respective energy supply path (3-1, 3-2; 3-3) depending on control signals, and - the reference rail (T-) is able to be connected to a negative pole of the charging device , - characterized in that at least two phases (U, V) of the electric machine are able to be connected to a positive pole of a charging device via in each case at least one freewheeling diode (9-U, 9-V), which charging device provides a DC voltage for charging at least one energy storage cell . - the controllable energy store has n parallel energy supply paths (3-1, 3-2, 3-3), which • each have at least two energy storage modules connected in series, which each comprise at least one electrical energy storage cell with an associated controllable coupling unit , • are firstly connected to a reference rail (T-) and • secondly connected to a respective phase (U, V, W) of the electric machine , • each have at least two energy storage modules connected in series, which each comprise at least one electrical energy storage cell with an associated controllable coupling unit , • are firstly connected to a reference rail (T-) and • secondly connected to a respective phase (U, V, W) of the electric machine , - the coupling units interrupt the respective energy supply path (3-1, 3-2; 3-3) or bypass the respectively associated energy storage cells or connect the respectively associated energy storage cells into the respective energy supply path (3-1, 3-2; 3-3) depending on control signals, and - the reference rail (T-) is able to be connected to a negative pole of the charging device , - characterized in that at least two phases (U, V) of the electric machine are able to be connected to a positive pole of a charging device via in each case at least one freewheeling diode (9-U, 9-V), which charging device provides a DC voltage for charging at least one energy storage cell .