mhurhangee/patent-ind-claim-en huggingface dataset:
Manual toothbrush, comprising a handle with a longitudinal axis A G , and a plug-on part which can be attached to the handle , wherein the handle has a hand body (ld) having a base body and the plug-on part has a base body, wherein a plug-like coupling structure protrudes from the handle , which plug-like coupling structure forms an interface X with a substantially mirror-inverted socket-like coupling structure of the plug-on part , wherein the interface X has at least two stages with different circumferential geometry, wherein at least one of the stages comprises a rotation-preventing means between the handle and the plug-on part , characterized in that a stop surface of the handle for the plug-on part extends obliquely with respect to the longitudinal axis A G of the handle , wherein the material from which the base body of the hand body (ld) is formed is harder than the material from which the base body of the plug-on part is formed.
An intraosseous access device comprising: a manual intraosseous driver including a handle , an activator , and a penetrator assembly , the penetrator assembly having a sharp penetrating end configured to penetrate a bone and associated bone marrow; and a stabilizer including a retainer and a stabilizer housing ; the retainer having a first retainer end , a second retainer end , and an internal passageway extending from the first retainer end to the second retainer end , the internal passageway configured to removably receive a portion of the manual intraosseous driver ; and the stabilizer housing having a first housing end , a second housing end , and an internal housing section configured to receive a portion of the retainer ; where the activator is configured to move to a locked position to lock the manual intraosseous driver to the stabilizer for intraosseous insertion of the penetrator assembly in a first mode of operation, and the penetrator assembly is operable to provide access to a sternal intraosseous space when the manual driver is coupled to the stabilizer in the first mode of operation; and where the activator is configured to move to an unlocked position to unlock the manual intraosseous driver from the stabilizer for intraosseous insertion of the penetrator assembly in a second mode of operation, and the penetrator assembly is operable to provide access to a peripheral intraosseous space when the manual driver is decoupled from the stabilizer in the second mode of operation. a manual intraosseous driver including a handle , an activator , and a penetrator assembly , the penetrator assembly having a sharp penetrating end configured to penetrate a bone and associated bone marrow; and a stabilizer including a retainer and a stabilizer housing ; the retainer having a first retainer end , a second retainer end , and an internal passageway extending from the first retainer end to the second retainer end , the internal passageway configured to removably receive a portion of the manual intraosseous driver ; and the stabilizer housing having a first housing end , a second housing end , and an internal housing section configured to receive a portion of the retainer ; where the activator is configured to move to a locked position to lock the manual intraosseous driver to the stabilizer for intraosseous insertion of the penetrator assembly in a first mode of operation, and the penetrator assembly is operable to provide access to a sternal intraosseous space when the manual driver is coupled to the stabilizer in the first mode of operation; and where the activator is configured to move to an unlocked position to unlock the manual intraosseous driver from the stabilizer for intraosseous insertion of the penetrator assembly in a second mode of operation, and the penetrator assembly is operable to provide access to a peripheral intraosseous space when the manual driver is decoupled from the stabilizer in the second mode of operation.
A method for introducing a profile into the subgrade for offshore applications by means of a vibrator which is guided on a cable and which - in the operating position - is mounted on the profile which is to be introduced, wherein a changeable weight force is applied to the vibrator by means of a ballast tank in which a supply line or discharge line is provided.
A door checker comprising: a housing which includes a base from which first and second opposing flanges extend; first and second guide pins spaced apart from one another and interconnected to the first and second flanges , the first and second guide pins configured to deflect in response to a load; a check arm which extends through the base and is arranged between the first and second guide pins , the check arm configured to move relative to the housing and including a profile that corresponds to a variable door holding force; and a bearing member arranged on one side of the check arm wherein the bearing member coacts with the profile and is supported on the first and second guide pins and is configured to slide thereon in response to movement of the check arm relative to the bearing member , and wherein the bearing member transfers the load from the check arm to the first and second guide pins , wherein the variable holding force is a first variable door holding force, characterized in that the portions provided by lateral sides define a width that varies along a length of the check arm , and a second variable door holding force is provided between the bearing member and the lateral sides based upon a position along the length. a housing which includes a base from which first and second opposing flanges extend; first and second guide pins spaced apart from one another and interconnected to the first and second flanges , the first and second guide pins configured to deflect in response to a load; a check arm which extends through the base and is arranged between the first and second guide pins , the check arm configured to move relative to the housing and including a profile that corresponds to a variable door holding force; and a bearing member arranged on one side of the check arm wherein the bearing member coacts with the profile and is supported on the first and second guide pins and is configured to slide thereon in response to movement of the check arm relative to the bearing member , and wherein the bearing member transfers the load from the check arm to the first and second guide pins , wherein the variable holding force is a first variable door holding force, characterized in that the portions provided by lateral sides define a width that varies along a length of the check arm , and a second variable door holding force is provided between the bearing member and the lateral sides based upon a position along the length.
A synthetic bead comprising: a solid-phase body made of a synthetic material, the solid-phase body comprising a surface, a plurality of molecules attached to at least part of the surface, the molecules comprising a functional group selected for attracting one or more mineral particles to the molecules, wherein the synthetic material is selected from a group consisting of polyamides (nylon), polyesters, polyurethanes, phenol-formaldehyde, urea-formaldehyde, melamine-formaldehyde, polyacetal, polyethylene, polyisobutylene, polyacrylonitrile, poly(vinyl chloride), polystyrene, poly(methyl methacrylate), poly(vinyl acetate), poly(vinylidene chloride), polyisoprene, polybutadiene, polyacrylates, poly(carbonate), phenolic resin and polydimethylsiloxane, said functional group is configured to cause the surface to be hydrophobic, the surface is made of a polymer functionalized with the molecules, and wherein the polymer is selected from the group consisting of polysiloxanates. a solid-phase body made of a synthetic material, the solid-phase body comprising a surface, a plurality of molecules attached to at least part of the surface, the molecules comprising a functional group selected for attracting one or more mineral particles to the molecules, wherein the synthetic material is selected from a group consisting of polyamides (nylon), polyesters, polyurethanes, phenol-formaldehyde, urea-formaldehyde, melamine-formaldehyde, polyacetal, polyethylene, polyisobutylene, polyacrylonitrile, poly(vinyl chloride), polystyrene, poly(methyl methacrylate), poly(vinyl acetate), poly(vinylidene chloride), polyisoprene, polybutadiene, polyacrylates, poly(carbonate), phenolic resin and polydimethylsiloxane, said functional group is configured to cause the surface to be hydrophobic, the surface is made of a polymer functionalized with the molecules, and wherein the polymer is selected from the group consisting of polysiloxanates.
A system comprising: a tool ; an input device including a first hand controller device and a second hand controller device ; a shape sensor system including a shape sensing fiber routed through the first hand controller device and the second hand controller device ; and a processing unit configured to: determine a state estimate of a state of the input device based on shape information from the shape sensor system , wherein the state includes one or more of a pose, a velocity, and an acceleration of the input device ; and control the tool based on the state estimate. a tool ; an input device including a first hand controller device and a second hand controller device ; a shape sensor system including a shape sensing fiber routed through the first hand controller device and the second hand controller device ; and a processing unit configured to: determine a state estimate of a state of the input device based on shape information from the shape sensor system , wherein the state includes one or more of a pose, a velocity, and an acceleration of the input device ; and control the tool based on the state estimate. determine a state estimate of a state of the input device based on shape information from the shape sensor system , wherein the state includes one or more of a pose, a velocity, and an acceleration of the input device ; and control the tool based on the state estimate.
A method for processing an audio signal, wherein the method is performed by a processing circuitry, comprising: generating a first component and a second component in a first audio coordinate system from a third component and a fourth component of the audio signal in a second audio coordinate system, wherein the first audio coordinate system is a mid-side audio coordinate system and the second audio coordinate system is left-right audio coordinate system; determining an amplitude threshold in the second audio coordinate system, wherein the amplitude threshold is defined by user input or programmatically, and wherein the amplitude threshold defines a maximum level for each of the third component and the fourth component; applying one or more gain factors to each of the first component and the second component to generate an adjusted first component and an adjusted second component in the first audio coordinate system, wherein the one or more gain factors are determined based on the amplitude threshold; and generating a first output channel and a second output channel in the second audio coordinate system from the adjusted first component and the adjusted second component, the first and second output channels each being limited below the amplitude threshold. generating a first component and a second component in a first audio coordinate system from a third component and a fourth component of the audio signal in a second audio coordinate system, wherein the first audio coordinate system is a mid-side audio coordinate system and the second audio coordinate system is left-right audio coordinate system; determining an amplitude threshold in the second audio coordinate system, wherein the amplitude threshold is defined by user input or programmatically, and wherein the amplitude threshold defines a maximum level for each of the third component and the fourth component; applying one or more gain factors to each of the first component and the second component to generate an adjusted first component and an adjusted second component in the first audio coordinate system, wherein the one or more gain factors are determined based on the amplitude threshold; and generating a first output channel and a second output channel in the second audio coordinate system from the adjusted first component and the adjusted second component, the first and second output channels each being limited below the amplitude threshold.
A method for data transfer in a conveyance system , the method comprising: moving a conveyance system component along a travel path, the conveyance system component including a memory ; the method being characterized by mapping locations of the conveyance system component along the travel path to network signal strength; and by transferring data , by at least one of sending data from the memory or receiving data to the memory, in response to available network signal strength. moving a conveyance system component along a travel path, the conveyance system component including a memory ; the method being characterized by mapping locations of the conveyance system component along the travel path to network signal strength; and by transferring data , by at least one of sending data from the memory or receiving data to the memory, in response to available network signal strength.
Method for controlling a beverage preparation machine , comprising: - preparing a first beverage of a predetermined beverage type having a first value of a beverage preparation parameter; - preparing a second beverage of an identical beverage type having a second value of the beverage preparation parameter which differs from the first value; - displaying a selection of the first and the second beverage for user input - receiving a user input which indicates the first or the second beverage; and - storing the beverage preparation parameter of the specified beverage as a default for preparing the beverage of the predetermined beverage type for future preparations. - preparing a first beverage of a predetermined beverage type having a first value of a beverage preparation parameter; - preparing a second beverage of an identical beverage type having a second value of the beverage preparation parameter which differs from the first value; - displaying a selection of the first and the second beverage for user input - receiving a user input which indicates the first or the second beverage; and - storing the beverage preparation parameter of the specified beverage as a default for preparing the beverage of the predetermined beverage type for future preparations.
A display device comprising: a substrate (SUB) including a display portion (A/A) that includes a plurality of subpixels (SP) and a pad portion outside the display portion (A/A); a plurality of power lines (VL1 to VL5) extended from the display portion; a plurality of data lines (DL1 to DL5) positioned in parallel with the plurality of power lines (VL1 to VL5) and extended from the display portion (A/A); and a bridge electrode (LSP) configured to connect the plurality of power lines (VL1 to VL5); characterized in that : only some (VL1, VL5) of the plurality of power lines (VL1 to VL5) includes a power pad electrode (VPE1, VPE2) positioned on the pad portion of the substrate (SUB) on at least an end of the corresponding power line (VL1, VL5); and the bridge electrode (LSP) is positioned on the same layer as a shield layer included in a subpixel (SP) and is configured in the same manner as the shield layer. a substrate (SUB) including a display portion (A/A) that includes a plurality of subpixels (SP) and a pad portion outside the display portion (A/A); a plurality of power lines (VL1 to VL5) extended from the display portion; a plurality of data lines (DL1 to DL5) positioned in parallel with the plurality of power lines (VL1 to VL5) and extended from the display portion (A/A); and a bridge electrode (LSP) configured to connect the plurality of power lines (VL1 to VL5); characterized in that : only some (VL1, VL5) of the plurality of power lines (VL1 to VL5) includes a power pad electrode (VPE1, VPE2) positioned on the pad portion of the substrate (SUB) on at least an end of the corresponding power line (VL1, VL5); and the bridge electrode (LSP) is positioned on the same layer as a shield layer included in a subpixel (SP) and is configured in the same manner as the shield layer. only some (VL1, VL5) of the plurality of power lines (VL1 to VL5) includes a power pad electrode (VPE1, VPE2) positioned on the pad portion of the substrate (SUB) on at least an end of the corresponding power line (VL1, VL5); and the bridge electrode (LSP) is positioned on the same layer as a shield layer included in a subpixel (SP) and is configured in the same manner as the shield layer.
An optoelectronic device comprising an active area capable of supplying an electromagnetic radiation and sandwiched between first and second semiconductor layers , the first semiconductor layer delimiting a surface , the optoelectronic device further comprising a diffraction grating capable of extracting the electromagnetic radiation from the first semiconductor layer, the diffraction grating comprising holes extending in the first semiconductor layer from said surface, the width of the holes measured in a plane parallel to said surface increasing continuously from a central portion of the diffraction grating to a peripheral portion of the diffraction grating, the holes being arranged in rows and in columns.
A semiconductor device, comprising: an emitter of electromagnetic radiation, the emitter being an electrically tunable vertical-cavity surface-emitting laser configured for a tuning voltage (V TUNE ) that is continuously swept through a prescribed range, a photodetector enabling a detection of electromagnetic radiation of a specific wavelength, a filter having a passband including the specific wavelength, the filter being arranged on the photodetector , the emitter and, optionally, the filter being electrically tunable to the specific wavelength, and a circuit configured to determine a time elapsed between emission and reception of a signal that is emitted by the emitter and then received by the photodetector , wherein determination of a maximum of a received signal amplitude indicates an optimum tuning voltage (V TUNE ) yielding the wavelength that is optimally adapted to the passband of the filter . an emitter of electromagnetic radiation, the emitter being an electrically tunable vertical-cavity surface-emitting laser configured for a tuning voltage (V TUNE ) that is continuously swept through a prescribed range, a photodetector enabling a detection of electromagnetic radiation of a specific wavelength, a filter having a passband including the specific wavelength, the filter being arranged on the photodetector , the emitter and, optionally, the filter being electrically tunable to the specific wavelength, and a circuit configured to determine a time elapsed between emission and reception of a signal that is emitted by the emitter and then received by the photodetector , wherein determination of a maximum of a received signal amplitude indicates an optimum tuning voltage (V TUNE ) yielding the wavelength that is optimally adapted to the passband of the filter .
A computer implemented method of non-invasive detection of tumour and/or healthy tissue using hyperspectral imaging, the method comprising: determining a pixel-wise classification of a hyperspectral image obtained from a target tissue by implementing a machine learning approach fed with hyperspectral data of at least one pixel; performing a segmentation of the hyperspectral image by grouping pixels into at least one cluster based on the hyperspectral data of each pixel; assigning the same classification to all the pixels belonging to the same cluster, so that each cluster is associated with a certain classification, wherein a classification is assigned to the cluster corresponding to the most frequent pixel classification in each cluster; performing a spatial homogenization of the pixel-wise classification, prior to assigning the same classification for all the pixels belonging to the same cluster; wherein the spatial homogenization of the pixel-wise classification comprises: performing a dimensionality reduction of the hyperspectral data of each pixel; implementing a filtering approach fed with pixel-wise classification data and dimensionally-reduced hyperspectral data, the filtering approach assigning to a pixel the most common classification among its pixel-neighbours, wherein the neighbours are determined based on the feature space comprising the pixel-wise classification value and the reduced dimension data. determining a pixel-wise classification of a hyperspectral image obtained from a target tissue by implementing a machine learning approach fed with hyperspectral data of at least one pixel; performing a segmentation of the hyperspectral image by grouping pixels into at least one cluster based on the hyperspectral data of each pixel; assigning the same classification to all the pixels belonging to the same cluster, so that each cluster is associated with a certain classification, wherein a classification is assigned to the cluster corresponding to the most frequent pixel classification in each cluster; performing a spatial homogenization of the pixel-wise classification, prior to assigning the same classification for all the pixels belonging to the same cluster; wherein the spatial homogenization of the pixel-wise classification comprises: performing a dimensionality reduction of the hyperspectral data of each pixel; implementing a filtering approach fed with pixel-wise classification data and dimensionally-reduced hyperspectral data, the filtering approach assigning to a pixel the most common classification among its pixel-neighbours, wherein the neighbours are determined based on the feature space comprising the pixel-wise classification value and the reduced dimension data. performing a dimensionality reduction of the hyperspectral data of each pixel; implementing a filtering approach fed with pixel-wise classification data and dimensionally-reduced hyperspectral data, the filtering approach assigning to a pixel the most common classification among its pixel-neighbours, wherein the neighbours are determined based on the feature space comprising the pixel-wise classification value and the reduced dimension data.