mhurhangee/patent-ind-claim-en huggingface dataset:
Device for labelling individual products , having a feeding mechanism for transporting the respective product in a transport direction (X); having a label dispensing mechanism for dispensing a label , which is detachable from a material strip, from an output location at which the label is detached from the material strip by a dispensing edge or is generated by severing a sub-portion from the material strip, in a dispensing direction (S); and having a label transfer mechanism having a movable label transport means for transferring the dispensed label from an acquisition region in which the dispensed label is acquired by the label transport means , to a delivery location at which the label is applied to the respective product ; wherein the label transport means has a surface which is brought into contact with the label ; wherein the device furthermore has a label alignment mechanism with a roller that has a roller axis which is parallel to the surface of the label transport means , and a shell face which is disposed circumferentially about the roller axis ; wherein the roller is disposed in such a manner that an imaginary straight line (G) emanating from the output location and running in the dispensing direction (S) intersects the shell face , characterized in that the roller is disposed in such a manner that, in the step of transferring the label from the label dispensing mechanism to the label transfer mechanism , the label first comes into contact with the roller and the label only subsequently comes into contact with the label transfer mechanism .
A multilayer insulated wire, comprising a polyester-based resin layer formed of a polyester-based resin containing at least a trihydric or higher hydric alcohol constituent on a conductor, and a PEEK resin layer formed of polyether ether ketone or modified polyether ether ketone, directly or by interposing an intermediate layer, on the polyester-based resin layer.
A method for producing resin foam, the method comprising: a melt step of melting a resin composition including a polyolefin resin and a thermoplastic elastomer; an impregnation step of impregnating the molten resin composition with a material that is a gas at normal temperature and normal pressure, in a supercritical state, under a condition in which the supercritical state of the material is maintained; a foaming step of foaming the resin composition impregnated with the material by arranging the resin composition under a condition in which the supercritical state of the material is not maintained; and a compression step of hot-pressing the foamed resin composition; the method being characterised in that the polyolefin resin includes polypropylene and high melt tension polypropylene having a first melt tension of 5 cN to 50 cN at 200°C that is greater than a second melt tension of the polypropylene at 200°C. a melt step of melting a resin composition including a polyolefin resin and a thermoplastic elastomer; an impregnation step of impregnating the molten resin composition with a material that is a gas at normal temperature and normal pressure, in a supercritical state, under a condition in which the supercritical state of the material is maintained; a foaming step of foaming the resin composition impregnated with the material by arranging the resin composition under a condition in which the supercritical state of the material is not maintained; and a compression step of hot-pressing the foamed resin composition;
Method for testing control apparatuses, comprising the following steps: • providing and operating a control apparatus which comprises at least one function depending on at least one condition and/or at least one invariant function; • providing and operating a test routine which tests the operated control apparatus with respect to its function; • dividing the functions to be tested into at least two groups; • testing each of the functions of the at least two groups; characterized in that the method comprises the following further steps: • determining to what extent a tested function has a connection to at least one tested function from at least one other group; • combining tested functions with each of the connected and tested functions from all of the other groups; • creating respective intermediate results of each of the combinations; • grouping the intermediate results to form a combination test result; and • providing the combination test result. • providing and operating a control apparatus which comprises at least one function depending on at least one condition and/or at least one invariant function; • providing and operating a test routine which tests the operated control apparatus with respect to its function; • dividing the functions to be tested into at least two groups; • testing each of the functions of the at least two groups; • determining to what extent a tested function has a connection to at least one tested function from at least one other group; • combining tested functions with each of the connected and tested functions from all of the other groups; • creating respective intermediate results of each of the combinations; • grouping the intermediate results to form a combination test result; and • providing the combination test result.
Method for optimised operation of a fan or a fan arrangement, wherein using a digital image of the fan or the fan arrangement and at least one operating-parameter-specific algorithm, whose combination forms a digital twin algorithm, the data and knowledge obtained during operation are supplied to an innovation and algorithm analysis so that, on the one hand, production innovations, that is to say, an improved fan or an improved fan arrangement, and, on the other hand, improved intelligent algorithms are generated, wherein with the innovation analysis digital images are collected during real client operation and by means of pattern recognition the characteristic properties of the client operation are filtered out and identified, wherein with reference to the characteristic properties from the client operation a client model is produced and wherein by means of artificial intelligence an analysis of the model with respect to weaknesses is carried out, wherein the algorithm analysis uses a program for machine learning for artificial generation of knowledge from experience during operation of the fan or the fan arrangement, wherein thermal and mechanical component states of the fan or the fan arrangement are calculated via the digital twin algorithm during operation of the fan by means of virtual sensors, wherein the operating-parameter-specific algorithm establishes from the component states specific operating parameters of the fan or the fan arrangement, wherein characteristic variables of the fan are calculated taking as a basis calculated component states and resulting operating parameters, and wherein the improvement of the algorithms is used for optimum calculation of the servicelife and/or in order to optimise the operation and/or best possible prognosis for the maintenance of the fans or the fan arrangements. wherein with the innovation analysis digital images are collected during real client operation and by means of pattern recognition the characteristic properties of the client operation are filtered out and identified, wherein with reference to the characteristic properties from the client operation a client model is produced and wherein by means of artificial intelligence an analysis of the model with respect to weaknesses is carried out, wherein the algorithm analysis uses a program for machine learning for artificial generation of knowledge from experience during operation of the fan or the fan arrangement, wherein thermal and mechanical component states of the fan or the fan arrangement are calculated via the digital twin algorithm during operation of the fan by means of virtual sensors, wherein the operating-parameter-specific algorithm establishes from the component states specific operating parameters of the fan or the fan arrangement, wherein characteristic variables of the fan are calculated taking as a basis calculated component states and resulting operating parameters, and wherein the improvement of the algorithms is used for optimum calculation of the servicelife and/or in order to optimise the operation and/or best possible prognosis for the maintenance of the fans or the fan arrangements.
An extruded tube, comprising at least one thermoplastic, melt processable fluoropolymer resin, wherein the extruded tube exhibits heat shrink capability, longitudinal peelability, and translucency or transparency through a wall of the extruded tube, characterised in that the extruded tube exhibits a melting point onset of less than about 230 °C.
An information processing apparatus capable of connecting to an external apparatus via a network , the information processing apparatus comprising: first setting means for enabling a first function of transmitting a first issuance request for a digital certificate to the external apparatus in accordance with a previously designated schedule, and acquiring a digital certificate from the external apparatus in response to the first issuance request; and second setting means for enabling a second function of transmitting a second issuance request for a digital certificate to the external apparatus in response to an instruction issued by a user for an issuance request for a digital certificate and acquiring a digital certificate from the external apparatus in response to the second issuance request, wherein, the second setting means is adapted to inhibit the second function in a case where the first function is currently enabled by the first setting means. first setting means for enabling a first function of transmitting a first issuance request for a digital certificate to the external apparatus in accordance with a previously designated schedule, and acquiring a digital certificate from the external apparatus in response to the first issuance request; and second setting means for enabling a second function of transmitting a second issuance request for a digital certificate to the external apparatus in response to an instruction issued by a user for an issuance request for a digital certificate and acquiring a digital certificate from the external apparatus in response to the second issuance request, wherein, the second setting means is adapted to inhibit the second function in a case where the first function is currently enabled by the first setting means.
An apparatus for selecting a wireless access point, the apparatus comprising: a data storage ; and a processor communicatively connected to the data storage , the processor being configured to: determine a plurality of wireless access points available to the apparatus ; determine a plurality of signal strengths, the plurality of signal strengths comprising signal strengths between the apparatus and each of the plurality of available wireless access points ; determine a plurality of historical performance metrics associated with at least two of the plurality of available wireless access points ; select the wireless access point from the plurality of wireless access points based on the plurality of historical performance metrics and the plurality of signal strengths; and wherein the plurality of historical performance metrics comprise metrics based on at least one of backhaul performance measurements and end-to-end performance measurements. a data storage ; and a processor communicatively connected to the data storage , the processor being configured to: determine a plurality of wireless access points available to the apparatus ; determine a plurality of signal strengths, the plurality of signal strengths comprising signal strengths between the apparatus and each of the plurality of available wireless access points ; determine a plurality of historical performance metrics associated with at least two of the plurality of available wireless access points ; select the wireless access point from the plurality of wireless access points based on the plurality of historical performance metrics and the plurality of signal strengths; and wherein the plurality of historical performance metrics comprise metrics based on at least one of backhaul performance measurements and end-to-end performance measurements. determine a plurality of wireless access points available to the apparatus ; determine a plurality of signal strengths, the plurality of signal strengths comprising signal strengths between the apparatus and each of the plurality of available wireless access points ; determine a plurality of historical performance metrics associated with at least two of the plurality of available wireless access points ; select the wireless access point from the plurality of wireless access points based on the plurality of historical performance metrics and the plurality of signal strengths; and wherein the plurality of historical performance metrics comprise metrics based on at least one of backhaul performance measurements and end-to-end performance measurements.
Method for determining the static pumping head (H static ) of a speed-controlled centrifugal pump assembly operated in a working point (B) in an open hydraulic system, characterised by the pumping head (H) of the centrifugal pump assembly in the working point (B) being modulated to obtain a pumping head fluctuation (ΔH) with an excitation frequency (f g ) that is so low that a flow rate fluctuation (ΔQ) is caused, in which the pumping head fluctuation (ΔH) and the flow rate fluctuation (ΔQ) are used to determine modulation parameters (H 0 , Q 0 , H 1 , Q 1 ) that are used to determine the static pumping head (Hstatic).
A method of operating an actuator system comprising a number k,k ∈ , of actuators in the form of individual propulsion units of an MAV-VTOL aircraft , in particular electrically powered actuators, wherein a desired control command u p εR m , m ∈ , for controlling the actuator system is allocated to real actuator commands uεR k , k ∈ , by using a weighted allocation matrix D(W), from an equation u = D -1 (W)u p , wherein D -1 (W) is an inverse of the weighted allocation matrix, and wherein the real actuator commands u are applied for controlling the actuators , the method being characterised by the following steps: a) determining a characterizing value u ∗ from the real actuator commands u, wherein said characterizing value u ∗ is a mean value of an entirety of the actuator commands u, i.e., u ∗ = u mean = mean ( u ); b) determining, at least for some of the actuators , preferably for all of the actuators , a deviation e i , i = 1,2,..., k of a respective actuator command u i , i = 1, 2, ..., k from said characterizing value u ∗ ; c) determining, at least for some of the actuators , preferably for all of the actuators , a weight w i , i = 1, 2, ..., k for a given actuator as a function w i ( e i ), i = 1, 2, ..., k of said deviation e i ; and d) using the weights w i for determining said weighted allocation matrix D ( W ). a) determining a characterizing value u ∗ from the real actuator commands u, wherein said characterizing value u ∗ is a mean value of an entirety of the actuator commands u, i.e., u ∗ = u mean = mean ( u ); b) determining, at least for some of the actuators , preferably for all of the actuators , a deviation e i , i = 1,2,..., k of a respective actuator command u i , i = 1, 2, ..., k from said characterizing value u ∗ ; c) determining, at least for some of the actuators , preferably for all of the actuators , a weight w i , i = 1, 2, ..., k for a given actuator as a function w i ( e i ), i = 1, 2, ..., k of said deviation e i ; and d) using the weights w i for determining said weighted allocation matrix D ( W ).
A system for supporting or positioning a patient comprising: a surgical table comprising a platform configured to support at least a portion of the patient; and an attachment connected to the platform; wherein, the platform comprises at least one receptacle ; and the attachment further includes at least one projection and the at least one receptacle of the platform being configured to receive at least a portion of the at least one projection of the attachment therein, characterised in that the at least one receptacle comprises one of a tag and a reader and the at least one projection has the other of the tag and the reader therein or thereon such that the tag and the reader are positioned so as to exchange information when the at least a portion of the at least one projection of the attachment is received in the at least one receptacle. a surgical table comprising a platform configured to support at least a portion of the patient; and an attachment connected to the platform; wherein, the platform comprises at least one receptacle ; and the attachment further includes at least one projection and the at least one receptacle of the platform being configured to receive at least a portion of the at least one projection of the attachment therein, the platform comprises at least one receptacle ; and the attachment further includes at least one projection and the at least one receptacle of the platform being configured to receive at least a portion of the at least one projection of the attachment therein, characterised in that the at least one receptacle comprises one of a tag and a reader and the at least one projection has the other of the tag and the reader therein or thereon such that the tag and the reader are positioned so as to exchange information when the at least a portion of the at least one projection of the attachment is received in the at least one receptacle.
A heart rate or a breathing rate measuring system, the system comprising: a shell configured to at least partially occlude an ear canal from the environment outside the ear; an in-ear microphone (IEM) inside the shell insertable in the ear canal, the IEM capturing sounds present inside the ear canal and converting the captured sounds into at least one inner audio signal; a processing device operatively connected to the IEM , the processing device being configured to analyze the at least one inner audio signal in order to determine a measurement of at least one of a heart rate and a breathing rate; an outer-ear microphone (OEM) , the OEM being operatively connected to the processing device and being configured to capture outer audio signals, the outer audio signals being indicative of sounds captured from the environment outside the ear; an adaptive filter configured to compute an estimated residual noise using the outer audio signals as input; wherein the processing device is further configured to analyze the at least one inner audio signal according to the estimated residual noise and to denoise the at least one inner audio signal based on the analysis. a shell configured to at least partially occlude an ear canal from the environment outside the ear; an in-ear microphone (IEM) inside the shell insertable in the ear canal, the IEM capturing sounds present inside the ear canal and converting the captured sounds into at least one inner audio signal; a processing device operatively connected to the IEM , the processing device being configured to analyze the at least one inner audio signal in order to determine a measurement of at least one of a heart rate and a breathing rate; an outer-ear microphone (OEM) , the OEM being operatively connected to the processing device and being configured to capture outer audio signals, the outer audio signals being indicative of sounds captured from the environment outside the ear; an adaptive filter configured to compute an estimated residual noise using the outer audio signals as input; wherein the processing device is further configured to analyze the at least one inner audio signal according to the estimated residual noise and to denoise the at least one inner audio signal based on the analysis.
A system for validating a graphical user interface (GUI), the system comprising: one or more processors ; and one or more memory devices that store program code configured to be executed by the one or more processors , the program code comprising: a test script launcher configured to: execute an application comprising the GUI ; execute a test script that interacts with the GUI of the application; capture a plurality of images representing the GUI of the application at different points in time; and for each image, associate a set of tags that identify expected objects in the image; and a GUI validator configured to: for each image, apply a model that classifies one or more graphical objects in the image; and validate each image based on the associated set of tags and the classification of each of the one or more graphical objects in the image. one or more processors ; and one or more memory devices that store program code configured to be executed by the one or more processors , the program code comprising: a test script launcher configured to: execute an application comprising the GUI ; execute a test script that interacts with the GUI of the application; capture a plurality of images representing the GUI of the application at different points in time; and for each image, associate a set of tags that identify expected objects in the image; and a GUI validator configured to: for each image, apply a model that classifies one or more graphical objects in the image; and a test script launcher configured to: execute an application comprising the GUI ; execute a test script that interacts with the GUI of the application; capture a plurality of images representing the GUI of the application at different points in time; and for each image, associate a set of tags that identify expected objects in the image; and execute an application comprising the GUI ; execute a test script that interacts with the GUI of the application; capture a plurality of images representing the GUI of the application at different points in time; and for each image, associate a set of tags that identify expected objects in the image; and a GUI validator configured to: for each image, apply a model that classifies one or more graphical objects in the image; and
Process for producing a sandwich component , comprising the following steps: forming a first cover layer on a mould surface of a moulding tool by depositing fibre strips on the mould surface of the moulding tool or by placing an areally extending fibre semi-finished product onto the mould surface of the moulding tool ; creating a core by constructing a cell structure having a multiplicity of cells in a thickness direction (D) on the first cover layer by means of an additive manufacturing process; forming a second cover layer on a deposition surface , situated opposite the first cover layer , of the core by depositing fibre strips onto the deposition surface of the core or by placing an areally extending fibre semi-finished product onto the deposition surface of the core ; wherein the additive manufacturing process used to create the core is a FDM 3D printing process. forming a first cover layer on a mould surface of a moulding tool by depositing fibre strips on the mould surface of the moulding tool or by placing an areally extending fibre semi-finished product onto the mould surface of the moulding tool ; creating a core by constructing a cell structure having a multiplicity of cells in a thickness direction (D) on the first cover layer by means of an additive manufacturing process; forming a second cover layer on a deposition surface , situated opposite the first cover layer , of the core by depositing fibre strips onto the deposition surface of the core or by placing an areally extending fibre semi-finished product onto the deposition surface of the core ; wherein the additive manufacturing process used to create the core is a FDM 3D printing process.