mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal for making an optical connection, comprising: a shell ; at least one connection port disposed on the terminal with the at least one connection port comprising an optical connector opening extending from an outer surface of the terminal into a cavity of the terminal and defining at least one connection port passageway ; at least one securing feature being disposed within the shell and associated with the at least one connection port passageway , wherein the at least one securing feature comprises a bore that is aligned with the at least one connection port passageway and a locking feature , wherein the locking feature projects from the bore ; and at least one securing feature resilient member for biasing a portion of the at least one securing feature , characterized in that the locking feature height (LFH) is between 3-8 millimeters and in that the at least one securing feature resilient member comprises a pre-load restoring force (PRF) between 22.24 N [5 pounds force] and 53.38 N [12 pounds force]. a shell ; at least one connection port disposed on the terminal with the at least one connection port comprising an optical connector opening extending from an outer surface of the terminal into a cavity of the terminal and defining at least one connection port passageway ; at least one securing feature being disposed within the shell and associated with the at least one connection port passageway , wherein the at least one securing feature comprises a bore that is aligned with the at least one connection port passageway and a locking feature , wherein the locking feature projects from the bore ; and at least one securing feature resilient member for biasing a portion of the at least one securing feature , characterized in that the locking feature height (LFH) is between 3-8 millimeters and in that the at least one securing feature resilient member comprises a pre-load restoring force (PRF) between 22.24 N [5 pounds force] and 53.38 N [12 pounds force].
Organic light-emitting diode (OLED) comprising - a transparent substrate and - on the substrate an organic light-emitting layer arranged between a transparent electrode and a further electrode , wherein - the transparent electrode has two layers and the two layers comprise a structured first layer , which is a charge carrier injection layer, and a conductive second layer , in which the first layer is embedded, characterised in that - the transparent electrode is arranged on the side of the organic light-emitting layer facing the substrate and - the structured first layer is arranged between the organic light-emitting layer and the conductive second layer and the second layer has a lower or no charge carrier injection into the organic light-emitting layer compared to the first layer. - a transparent substrate and - on the substrate an organic light-emitting layer arranged between a transparent electrode and a further electrode , wherein - the transparent electrode has two layers and the two layers comprise a structured first layer , which is a charge carrier injection layer, and a conductive second layer , in which the first layer is embedded, characterised in that - the transparent electrode is arranged on the side of the organic light-emitting layer facing the substrate and - the structured first layer is arranged between the organic light-emitting layer and the conductive second layer and the second layer has a lower or no charge carrier injection into the organic light-emitting layer compared to the first layer.
A method of reconstructing image, characterized in that the method comprises: accessing (S101, S201) a first set of damaged projection data that comprises a plurality of first projection data each corresponding to a respective projection angle of a plurality of projection angles; generating (S102, S202) a first set of reconstructed data by image reconstruction with the first set of projection data; generating (S103, S203) a second set of projection data by projection calculation with the first set of reconstructed data, the second set of projection data comprising a plurality of second projection data each corresponding to a respective projection angle of the plurality of projection angles; generating (S104, S204) a third set of projection data from the first set of projection data and the second set of projection data based on a correlation between respective first projection data and respective second projection data corresponding to each of the plurality of projection angles, wherein the correlation between the first projection data and the second projection data corresponding to the projection angle indicates whether the first projection data corresponding to the projection angle is damaged; if the correlation shows a large difference the first projection data corresponding to the projection angle is replaced with the second projection data, if not the first projection data may be reserved; and generating (S105, S205) a second set of reconstructed data by image reconstruction with the third set of projection data. accessing (S101, S201) a first set of damaged projection data that comprises a plurality of first projection data each corresponding to a respective projection angle of a plurality of projection angles; generating (S102, S202) a first set of reconstructed data by image reconstruction with the first set of projection data; generating (S103, S203) a second set of projection data by projection calculation with the first set of reconstructed data, the second set of projection data comprising a plurality of second projection data each corresponding to a respective projection angle of the plurality of projection angles; generating (S104, S204) a third set of projection data from the first set of projection data and the second set of projection data based on a correlation between respective first projection data and respective second projection data corresponding to each of the plurality of projection angles, wherein the correlation between the first projection data and the second projection data corresponding to the projection angle indicates whether the first projection data corresponding to the projection angle is damaged; if the correlation shows a large difference the first projection data corresponding to the projection angle is replaced with the second projection data, if not the first projection data may be reserved; and generating (S105, S205) a second set of reconstructed data by image reconstruction with the third set of projection data.
Antislip, heat sealable plastic packaging bag , the packaging bag formed from an antislip flexible packaging material , the packaging material comprising a heat sealable plastic flexible wall having an outer surface , the wall having an average surface weight of at most 500 g/m 2 , in at least a part, a roughened part , of the wall the packaging material comprising a multiplicity of separate antislip protrusions , of a first substance, randomly distributed on the outer surface and projecting from the outer surface to a protrusion height of between 50 micrometres and 10000 micrometres, with an average of top-plan-view aspect ratios of the multiplicity of the antislip protrusions being at least 1.0 and at most 5.0, at least some of the antislip protrusions having a hidden surface portion being a portion of a free surface of the antislip protrusion which the antislip protrusion covers from a viewer in a top plan view of the wall taken from above the antislip protrusions , the multiplicity of the antislip protrusions looking toward an outside of the packaging bag , the first substance being a thermoplastic polymer, and the outer surface being of a second substance different in some property from the first substance, characterised in that the first substance has a melt mass flow rate of at least 0.6 g/10 min. determined at 190 °C under a load of 2.16 kg in accordance with ISO 1133-1. the packaging bag formed from an antislip flexible packaging material , the packaging material comprising a heat sealable plastic flexible wall having an outer surface , the wall having an average surface weight of at most 500 g/m 2 , in at least a part, a roughened part , of the wall the packaging material comprising a multiplicity of separate antislip protrusions , of a first substance, randomly distributed on the outer surface and projecting from the outer surface to a protrusion height of between 50 micrometres and 10000 micrometres, with an average of top-plan-view aspect ratios of the multiplicity of the antislip protrusions being at least 1.0 and at most 5.0, at least some of the antislip protrusions having a hidden surface portion being a portion of a free surface of the antislip protrusion which the antislip protrusion covers from a viewer in a top plan view of the wall taken from above the antislip protrusions , the multiplicity of the antislip protrusions looking toward an outside of the packaging bag , the first substance being a thermoplastic polymer, and the outer surface being of a second substance different in some property from the first substance, characterised in that the first substance has a melt mass flow rate of at least 0.6 g/10 min. determined at 190 °C under a load of 2.16 kg in accordance with ISO 1133-1.
Generator for supply of a surgical instrument with electric current, having a first amplifier (V1) that comprises a first input electrode (G1) and a first output electrode (D1), having a second amplifier (V2) that comprises a second input electrode (G2) and a second output electrode (D2), having an inductor that is arranged between the first and the second output electrode (D1, D2), having a first capacitor (C1) that is connected with the inductor to form an oscillating circuit, characterized by a second capacitor (C2) that comprises an end connected with the inductor and an end connected with a switch (SW1). having a first amplifier (V1) that comprises a first input electrode (G1) and a first output electrode (D1), having a second amplifier (V2) that comprises a second input electrode (G2) and a second output electrode (D2), having an inductor that is arranged between the first and the second output electrode (D1, D2), having a first capacitor (C1) that is connected with the inductor to form an oscillating circuit, characterized by a second capacitor (C2) that comprises an end connected with the inductor and an end connected with a switch (SW1).
A cellfree adipose tissue extract, comprising VEGF, FGF-2, and IGF-1 and which has been prepared from adipose tissue obtained from liposuction, which adipose tissue comprises viable cells, by incubating the cells in a sterile salt solution, phosphate buffered saline or an isotonic aqueous buffer solution for a period of time ranging from 45 min to 2 hours and collecting the extract without cells, wherein the extract comprises between 1 pg/ml and 1400 pg/ml of VEGF, between 20 pg/ml and 1500 pg/ml of FGF-2 and between 100 pg/ml and 1500 pg/ml of IGF-1.
A storage device , in particular a harp rack , for storing glass sheets, preferably laminated glass sheets or single-pane safety glass sheets, the storage device comprising a loading space and a plurality of compartment frames situated one after the other in a loading direction of the storage device , which frames divides the loading space into individual compartments , situated adjacent to one another and parallel to one another in a width direction of the storage device , for the respective accommodation of a glass sheet, the compartment frames each comprising, for the division of the compartments , a plurality of first elongated compartment divider elements , preferably compartment divider rods and/or compartment divider cables, that are adjacent to one another and at a distance from one another in the width direction , wherein the storage device comprises a plurality of second elongated compartment divider elements , preferably compartment divider rods and/or compartment divider cables, that in addition to the first compartment divider elements (28;16) laterally bound the compartments , characterized in that the second compartment divider rods (29;19) each extend between two first compartment divider elements (28; 16) of two compartment frames situated one after the other, the compartment divider elements (28;29) have a circular crosssection and the first compartment divider elements (28;16) being inclined relative to the vertical, wherein they are inclined by an angle of inclination α towards the rear side or away from it, wherein the angle of inclination α preferably is ≤ 45°, preferably ≤ 20°, particularly preferably ≤ 10°. wherein the storage device comprises a plurality of second elongated compartment divider elements , preferably compartment divider rods and/or compartment divider cables, that in addition to the first compartment divider elements (28;16) laterally bound the compartments , characterized in that the second compartment divider rods (29;19) each extend between two first compartment divider elements (28; 16) of two compartment frames situated one after the other, the compartment divider elements (28;29) have a circular crosssection and the first compartment divider elements (28;16) being inclined relative to the vertical, wherein they are inclined by an angle of inclination α towards the rear side or away from it, wherein the angle of inclination α preferably is ≤ 45°, preferably ≤ 20°, particularly preferably ≤ 10°.
Sheet processing method for sheets of paper, cardboard, plastic or the like, in which sheet processing method an input station for the provision of sheets for processing , a processing station for processing a sheet arranged therein, and an output station for the setting-down of processed sheets are provided one behind the other in a sheet transport path, and, repeatedly in series, • in the input station , a sheet for processing , and in the processing station , an already-processed sheet , are gripped by a sheet gripping device , • the sheet for processing is moved from the input station into the processing station and is set down, and the processed sheet is moved from the processing station into the output station and is set down, and • the sheet for processing is processed in the processing station , wherein • the sheet for processing is, in the processing station , firstly brought to a standstill and then set down, whereas • the processed sheet is, in the output station , set down from a moving state, and wherein the sheet gripping device has at least two gripping elements which are controllable separately from one another. • in the input station , a sheet for processing , and in the processing station , an already-processed sheet , are gripped by a sheet gripping device , • the sheet for processing is moved from the input station into the processing station and is set down, and the processed sheet is moved from the processing station into the output station and is set down, and • the sheet for processing is processed in the processing station , wherein • the sheet for processing is, in the processing station , firstly brought to a standstill and then set down, whereas • the processed sheet is, in the output station , set down from a moving state, and wherein the sheet gripping device has at least two gripping elements which are controllable separately from one another.
A device for implanting in a biological tissue and adapted to move in a viscoelastic media, the device comprising: a main-body comprising a first material and having a direction in the viscoelastic media, and being configured to change its direction in the viscoelastic media upon application thereto of a first stimulus field at a first threshold; and one or more memory shaped elements externally attached to the main-body, each of said memory shaped elements having a first configuration and comprising a second material being a stimulus-responsive shape-memory material, said second material comprises an elastomer, and wherein the memory shaped element is configured to adopt a second configuration upon application thereto of a second stimulus field at a second threshold, thereby propelling the main-body through the viscoelastic media. a main-body comprising a first material and having a direction in the viscoelastic media, and being configured to change its direction in the viscoelastic media upon application thereto of a first stimulus field at a first threshold; and one or more memory shaped elements externally attached to the main-body, each of said memory shaped elements having a first configuration and comprising a second material being a stimulus-responsive shape-memory material, said second material comprises an elastomer, and wherein the memory shaped element is configured to adopt a second configuration upon application thereto of a second stimulus field at a second threshold, thereby propelling the main-body through the viscoelastic media.
A portable electronic apparatus comprising: a main body portion including: a display , a touch portion configured to detect a user touch; a processor ; the portable electronic apparatus further comprising: a strap attached to the main body portion , wherein the strap is not included in the main body portion; a sensor included in the strap ; wherein the processor is configured to: obtain, from the sensor , bending information, including a position and an angle at which the strap is bent, and determine relative positional information between the display and the strap based on the bending information, in response to obtaining the bending information and determining the relative positional information, determine whether the user touch is detected through the touch portion ; and when it is determined that the user touch is detected: identify a user interaction based on the bending information and the relative positional information between the display and the strap, and control the display to display a user interface, Ul, element based on the user interaction. a main body portion including: a display , a touch portion configured to detect a user touch; a processor ; a display , a touch portion configured to detect a user touch; a processor ; the portable electronic apparatus further comprising: a strap attached to the main body portion , wherein the strap is not included in the main body portion; a sensor included in the strap ; a strap attached to the main body portion , wherein the strap is not included in the main body portion; a sensor included in the strap ; wherein the processor is configured to: obtain, from the sensor , bending information, including a position and an angle at which the strap is bent, and determine relative positional information between the display and the strap based on the bending information, in response to obtaining the bending information and determining the relative positional information, determine whether the user touch is detected through the touch portion ; and obtain, from the sensor , bending information, including a position and an angle at which the strap is bent, and determine relative positional information between the display and the strap based on the bending information, in response to obtaining the bending information and determining the relative positional information, determine whether the user touch is detected through the touch portion ; and when it is determined that the user touch is detected: identify a user interaction based on the bending information and the relative positional information between the display and the strap, and control the display to display a user interface, Ul, element based on the user interaction. identify a user interaction based on the bending information and the relative positional information between the display and the strap, and control the display to display a user interface, Ul, element based on the user interaction.
A processor implemented recognition method, comprising: providing a voice signal to a main neural network and a sub-neural network ; obtaining a scaling factor by implementing the sub-neural network configured to generate the scaling factor by interpreting the provided voice signal ; determining a size of a future context, based on the scaling factor, to be considered by the main neural network configured to perform speech recognition ; and obtaining a result of a recognizing of the voice signal by implementing the main neural network with the determined size of the future context . providing a voice signal to a main neural network and a sub-neural network ; obtaining a scaling factor by implementing the sub-neural network configured to generate the scaling factor by interpreting the provided voice signal ; determining a size of a future context, based on the scaling factor, to be considered by the main neural network configured to perform speech recognition ; and obtaining a result of a recognizing of the voice signal by implementing the main neural network with the determined size of the future context .
A mobile machine , comprising: a harvesting mechanism arranged to harvest a crop; a crop loss sensor arranged to generate a crop loss sensor signal indicative of crop loss sensed during harvesting; a context sensor arranged to generate a context information signal indicative of a context of the mobile machine ; and a crop loss correction system adapted to generate a corrected loss signal based on the crop loss sensor signal and the context information signal, characterized in that the machine can have different configurations whereby the particular configuration of the machine affects the ability to accurately sense grain loss, that the context sensor comprises a machine state sensor that is adapted to sense the configuration of the mobile machine and to generate the context information signal to be indicative of the sensed machine configuration, and that the crop loss correction system is adapted to generate the corrected loss signal based on the sensed machine configuration. a harvesting mechanism arranged to harvest a crop; a crop loss sensor arranged to generate a crop loss sensor signal indicative of crop loss sensed during harvesting; a context sensor arranged to generate a context information signal indicative of a context of the mobile machine ; and a crop loss correction system adapted to generate a corrected loss signal based on the crop loss sensor signal and the context information signal, characterized in that the machine can have different configurations whereby the particular configuration of the machine affects the ability to accurately sense grain loss, that the context sensor comprises a machine state sensor that is adapted to sense the configuration of the mobile machine and to generate the context information signal to be indicative of the sensed machine configuration, and that the crop loss correction system is adapted to generate the corrected loss signal based on the sensed machine configuration.
Flexible abrasive having a backing and abrasive grains held thereon on a surface with an average particle size d 50 of the abrasive grains of 3 to 15 μm, the microstructure of the backing in the form of elevations and depressions also being retained in the finished abrasive and the surface of the abrasive having an average peak-to-valley height Rzs of 10-20 μm and a maximum peak-to-valley height R maxS of 40 μm and a maximum peak-to-valley height R max s of 40 μm, characterized in that - the ratio of the mean particle size d 50 to the mean peak-to-valley height R ZT of the surface of the backing holding the abrasives is 1 : 1.5 to 4, - the area ratio between the elevations and depressions of the surface of the abrasive is 1 : 0.1 - 1.5. - the ratio of the mean particle size d 50 to the mean peak-to-valley height R ZT of the surface of the backing holding the abrasives is 1 : 1.5 to 4, - the area ratio between the elevations and depressions of the surface of the abrasive is 1 : 0.1 - 1.5.
A method of detecting in an individual the presence or absence of one or more autoantibodies each directed against an antigen, the method comprising contacting a sample from the individual with a preparation of membrane vesicles comprising the one or more antigens and thereby detecting the presence or absence of the one or more autoantibodies, wherein the membrane vesicles are derived from a cell transfected or transformed with the antigen.