mhurhangee/patent-ind-claim-en huggingface dataset:
A media handler for detecting counterfeit media, the media handler comprising: a plurality of discrete sensors (40 to 50) distributed along a transport path operable to transport a media item , and a controller operable to receive signals from the plurality of discrete sensors (40 to 50) and to make a decision on validity of the transported media item based on the received signals; characterised in that ; the discrete sensors (40 to 50) are not all housed within a single module; the discrete sensors (40 to 50) are longitudinally spaced apart from one another in a direction along the transport path , and each discrete sensor (40 to 50) comprises a sensor for media validation and position sensing , said sensor being offset laterally from all other sensors for media validation and position sensing of the other discrete sensors (40 to 50) in a direction perpendicular to the transport path , so that each discrete sensor (40 to 50) senses a different portion of a surface of the media item and a plurality of the discrete sensors (42 to 50) further comprise a position sensor laterally offset from the sensor for media validation and position sensing of the discrete sensor. a plurality of discrete sensors (40 to 50) distributed along a transport path operable to transport a media item , and a controller operable to receive signals from the plurality of discrete sensors (40 to 50) and to make a decision on validity of the transported media item based on the received signals;
A method of pneumatically conveying superabsorbent particles, wherein the superabsorbent particles have been admixed with an aqueous wax dispersion prior to the pneumatic conveying, the wax has a glass transition temperature of at least 65°C and, based on the untreated superabsorbent particles, from 0.020% to 0.20% by weight of wax has been used.
A tissue graft comprising a first membrane comprising Wharton's jelly having the outer layer of amnion removed, a layer of chorion, and a layer of amnion.
Chainsaw system having a chainsaw (12a; 12b) and a saw blade module (14a; 14b) that has a cutting strand (18a; 18b) and at least one guide unit (50a; 50b) for guiding at least a part of the cutting strand (18a; 18b), having at least one coupling unit (16a; 16b) for coupling the saw blade module (14a; 14b) to the chainsaw (12a; 12b), wherein the chainsaw (12a; 12b) has at least one release unit (20a; 20b) having at least one actuating element (22a; 22b), said release unit (20a; 20b) being designed for tool-free uncoupling of the at least one saw blade module (14a; 14b) coupled via the coupling unit (16a; 16b), wherein the chainsaw (12a; 12b) has at least one blocking unit (24a; 24b) that is at least designed to prevent the saw blade module (14a; 14b), coupled via the coupling unit (16a; 16b), from being uncoupled by means of the release unit (20a; 20b) while the chainsaw (12a; 12b) is in operation, characterized in that the blocking unit (24a; 24b) has at least one uncoupling blocking element (26a; 26b) that is designed to block actuation of the actuating element (22a; 22b) of the release unit (20a; 20b) while the chainsaw (12a; 12b) is in operation.
A method for forming a three dimensional structure comprising depositing a stress engineered film over a conductive layer, the stress engineered film including: elastic portions having a non-uniform stress profile through the thickness of one or more layers thereof such that the stress engineered film curls when released from the conductive layer; and anchor portions configured to remain attached to the conductive layer; forming gaps in the conductive layer between adjacent anchor portions; depositing a mask layer over the conductive layer and defining one or more release windows 530); etching the conductive layer in the release windows, the etching releasing the elastic portions of the stress engineered film such that the elastic portions curl to form the three dimensional structure, wherein the elastic portions of the stress engineered film curl to form three dimensional coil loops; and electroplating the three dimensional structure using the conductive layer as a contact for the electroplating, wherein electrically conductive stubs extend between two adjacent anchor portions without electrically connecting the two adjacent anchor portions. depositing a stress engineered film over a conductive layer, the stress engineered film including: elastic portions having a non-uniform stress profile through the thickness of one or more layers thereof such that the stress engineered film curls when released from the conductive layer; and anchor portions configured to remain attached to the conductive layer; elastic portions having a non-uniform stress profile through the thickness of one or more layers thereof such that the stress engineered film curls when released from the conductive layer; and anchor portions configured to remain attached to the conductive layer; forming gaps in the conductive layer between adjacent anchor portions; depositing a mask layer over the conductive layer and defining one or more release windows 530); etching the conductive layer in the release windows, the etching releasing the elastic portions of the stress engineered film such that the elastic portions curl to form the three dimensional structure, wherein the elastic portions of the stress engineered film curl to form three dimensional coil loops; and electroplating the three dimensional structure using the conductive layer as a contact for the electroplating, wherein electrically conductive stubs extend between two adjacent anchor portions without electrically connecting the two adjacent anchor portions.
A camera for processing a collection of still images for transfer to an external memory , comprising: a camera module that is configured to capture still images according to an image capture of the camera; a memory which is configured to store the captured images; and a control circuit configured to: generate a thumbnail image for each stored image, each thumbnail image stored in the memory at a resolution less than a resolution of the corresponding image; analyze the thumbnail images to identify one or more thumbnail images that meet transfer criteria, characterized in that the control circuit is further configured to include thumbnail images meeting the transfer criteria in a subset, compare the thumbnail images in the subset to identify a group of images that have a threshold level of similarity; and tag for transfer the images that correspond to the thumbnail images that are in the group. a camera module that is configured to capture still images according to an image capture of the camera; a memory which is configured to store the captured images; and a control circuit configured to: generate a thumbnail image for each stored image, each thumbnail image stored in the memory at a resolution less than a resolution of the corresponding image; analyze the thumbnail images to identify one or more thumbnail images that meet transfer criteria, generate a thumbnail image for each stored image, each thumbnail image stored in the memory at a resolution less than a resolution of the corresponding image; analyze the thumbnail images to identify one or more thumbnail images that meet transfer criteria, characterized in that the control circuit is further configured to include thumbnail images meeting the transfer criteria in a subset, compare the thumbnail images in the subset to identify a group of images that have a threshold level of similarity; and tag for transfer the images that correspond to the thumbnail images that are in the group. include thumbnail images meeting the transfer criteria in a subset, compare the thumbnail images in the subset to identify a group of images that have a threshold level of similarity; and tag for transfer the images that correspond to the thumbnail images that are in the group.
Method for the combined manufacturing of cement clinker and calcined clay, wherein the cement clinker is produced by the steps: providing a cement clinker raw meal, preheating the cement clinker raw meal to provide preheated cement clinker raw meal, precalcination of the preheated cement clinker raw meal to provide precalcined cement clinker raw meal, sintering the precalcined cement clinker raw meal in a rotary kiln to provide the cement clinker and cooling the cement clinker with a counter current air stream providing hot air, and the calcined clay is produced by the steps: providing a clay raw material, preheating the clay raw material to provide preheated clay raw material, calcining the preheated clay raw material suspended in hot gas in a flash calciner to provide the calcined clay, and cooling the calcined clay; wherein the hot air from cooling the cement clinker is divided into at least two streams, a first combustion air stream used in sintering the precalcined cement raw meal and a second combustion air stream used in calcining the preheated clay raw material, and wherein exhaust gas from calcining the preheated clay raw material is fed into the calcination of the preheated cement raw meal. providing a cement clinker raw meal, preheating the cement clinker raw meal to provide preheated cement clinker raw meal, precalcination of the preheated cement clinker raw meal to provide precalcined cement clinker raw meal, sintering the precalcined cement clinker raw meal in a rotary kiln to provide the cement clinker and cooling the cement clinker with a counter current air stream providing hot air, and the calcined clay is produced by the steps: providing a clay raw material, preheating the clay raw material to provide preheated clay raw material, calcining the preheated clay raw material suspended in hot gas in a flash calciner to provide the calcined clay, and cooling the calcined clay; wherein the hot air from cooling the cement clinker is divided into at least two streams, a first combustion air stream used in sintering the precalcined cement raw meal and a second combustion air stream used in calcining the preheated clay raw material, and wherein exhaust gas from calcining the preheated clay raw material is fed into the calcination of the preheated cement raw meal. providing a clay raw material, preheating the clay raw material to provide preheated clay raw material, calcining the preheated clay raw material suspended in hot gas in a flash calciner to provide the calcined clay, and cooling the calcined clay; wherein the hot air from cooling the cement clinker is divided into at least two streams, a first combustion air stream used in sintering the precalcined cement raw meal and a second combustion air stream used in calcining the preheated clay raw material, and wherein exhaust gas from calcining the preheated clay raw material is fed into the calcination of the preheated cement raw meal.
A multistage centrifugal pump , with which the impellers of the pump stages are arranged on a shaft which is rotatably arranged within a pump casing (2-4) and which at one end is led out of the casing (2-4) for connection to a drive motor and at the other end is arranged within the pump casing (2-4), wherein the shaft end which is arranged within the pump casing (2-4) is subjected to a counter-force which is produced by way of pressure subjection via a conduit connection to a delivery side of the pump , wherein an axial seal is provided on the shaft end arranged within the pump casing (2-4), the rotating part of said axial seal being led on the shaft end and the non-rotating part being led within the pump casing (2-4) in an axially movable manner, wherein sealing means are provided between the pump casing (2-4) and the axially movably mounted part .
Cabinet for the installation of IT, EDP, network and/or telecommunications systems, the cabinet having a body and at least one closable opening for the installation and maintenance of systems which can be arranged within the body , characterised in that a passive cooling is provided without fans arranged on the outside of the cabinet, at least one Peltier element having a hot side and a cold side being arranged only in or only on the body in order to realise the passive cooling, the hot side being functionally connected to at least one external cooling structure arranged on the outside of the body via at least one heat pipe connected in a heat-conducting manner, and a) a forced air flow of a cooling air stream being provided at least partially through an internal cooling structure and b) at least one wall being designed as an insulating wall. a) a forced air flow of a cooling air stream being provided at least partially through an internal cooling structure and b) at least one wall being designed as an insulating wall.
Electronic device circuitry for use in a user equipment, UE , configured to use a narrowband, NB, bandwidth when performing random access of a cellular network associated with an evolved Node B, eNB , providing the NB bandwidth at a frequency band of a repurposed deployment using global systems for mobile communications, GSM, spectrum, an in-band deployment using a physical resource block, PRB, of a larger-bandwidth long term evolution, LTE, system , or a guard-band deployment using a guard band of the larger-bandwidth LTE system , the electronic device circuitry comprising: control circuitry configured to generate an NB-physical random access channel, NB-PRACH, defined by an NB-PRACH physical structure and an NB-PRACH numerology; the NB-PRACH physical structure including a cyclic prefix, CP , a guard time, GT , and an NB-PRACH sequence between the CP and the GT ; and the NB-PRACH numerology configured to size components of the NB-PRACH physical structure such that a beginning of the CP and an end of the GT temporally correspond with a beginning and an end of one or more LTE subframes that each have a one millisecond, 1 ms, duration, and the NB-PRACH numerology having a number of subcarriers at a subcarrier spacing to establish the NB-PRACH that has an NB-PRACH bandwidth within the NB bandwidth; characterized in that the NB-PRACH further includes coded bits that carry information related to a scheduling request, SR , and the control circuitry is further configured to randomly select one NB-PRACH preamble signature and a SR transmission opportunity for transmission of the NB-PRACH and the SR within one LTE subframe. control circuitry configured to generate an NB-physical random access channel, NB-PRACH, defined by an NB-PRACH physical structure and an NB-PRACH numerology; the NB-PRACH physical structure including a cyclic prefix, CP , a guard time, GT , and an NB-PRACH sequence between the CP and the GT ; and the NB-PRACH numerology configured to size components of the NB-PRACH physical structure such that a beginning of the CP and an end of the GT temporally correspond with a beginning and an end of one or more LTE subframes that each have a one millisecond, 1 ms, duration, and the NB-PRACH numerology having a number of subcarriers at a subcarrier spacing to establish the NB-PRACH that has an NB-PRACH bandwidth within the NB bandwidth; characterized in that the NB-PRACH further includes coded bits that carry information related to a scheduling request, SR , and the control circuitry is further configured to randomly select one NB-PRACH preamble signature and a SR transmission opportunity for transmission of the NB-PRACH and the SR within one LTE subframe.
A system comprising: an initialization module configured to obtain parameters for use with a first patient, wherein the initialization module is configured to select a first plurality of settings for an x-ray source based on the parameters; an image module configured to obtain (i) a first sample set of one or more images of a region-of-interest of the first patient, and (ii) a master sample set of one or more images, wherein the first sample set of one or more images are based on the x-ray source operating according to the first plurality of settings; an alignment module configured to align the first sample set of one or more images to the master sample set of one or more images; a processing module configured to process pixel data corresponding to a result of the alignment based on a pixel parameter; and a setting module configured to adjust the first plurality of settings to provide updated settings, where x-ray dosage associated with the updated settings is less than x-ray dosage associated with the first plurality of settings. an initialization module configured to obtain parameters for use with a first patient, wherein the initialization module is configured to select a first plurality of settings for an x-ray source based on the parameters; an image module configured to obtain (i) a first sample set of one or more images of a region-of-interest of the first patient, and (ii) a master sample set of one or more images, wherein the first sample set of one or more images are based on the x-ray source operating according to the first plurality of settings; an alignment module configured to align the first sample set of one or more images to the master sample set of one or more images; a processing module configured to process pixel data corresponding to a result of the alignment based on a pixel parameter; and a setting module configured to adjust the first plurality of settings to provide updated settings, where x-ray dosage associated with the updated settings is less than x-ray dosage associated with the first plurality of settings.
A method for reducing communication interference, comprising: determining, at a first base station servicing a first user equipment , a synchronization error between a timing of a communication between the first base station and the first user equipment and a timing of a communication between a second base station and a second user equipment , wherein the synchronization error is represented by a timing offset value (t d ); and in response to determining the synchronization error, sending, from the first base station to the first user equipment , a timing advance value (t adv ) and instructions to advance by the timing advance value (t adv ) a window of time during which the first user equipment transmits uplink signals to the first base station , wherein the timing advance value (t adv ) is based on the timing offset value (t d ), such that interferences caused by a lack of synchronization between frame structures of neighboring base station - user equipment pairs can be reduced or eliminated. determining, at a first base station servicing a first user equipment , a synchronization error between a timing of a communication between the first base station and the first user equipment and a timing of a communication between a second base station and a second user equipment , wherein the synchronization error is represented by a timing offset value (t d ); and in response to determining the synchronization error, sending, from the first base station to the first user equipment , a timing advance value (t adv ) and instructions to advance by the timing advance value (t adv ) a window of time during which the first user equipment transmits uplink signals to the first base station , wherein the timing advance value (t adv ) is based on the timing offset value (t d ), such that interferences caused by a lack of synchronization between frame structures of neighboring base station - user equipment pairs can be reduced or eliminated.
A vacuum device , in particular a vacuum pump, a vacuum measurement device, a leak detection device and/or a vacuum chamber device, comprising at least one device component and an electronic apparatus for the device control and/or device regulation, wherein a plurality of configuration parameters can be defined in the electronic apparatus to define a device operating configuration, and wherein the electronic apparatus is configured to automatically define at least one of the configuration parameters by connecting the electronic apparatus to an interface of the device component , and wherein at least one further configuration parameter can be selected by a user-side input at the electronic apparatus , characterized in that the at least one further configuration parameter , which can be selected by a user-side input, can be stored at the device component side in a non-volatile data memory provided at the device component side and can be read out by the electronic apparatus or an electronic apparatus connected as an alternative.
A robot controller configured to control a motor of a robot, the robot controller comprising: a housing accommodating a heat generating part that generates heat; a vent hole that is open on a first wall of the housing ; a first fan configured to supply air, introduced through the vent hole into the housing , to the heat generating part; and a lid part configured to cover the vent hole , characterized in that : a second wall of the housing is made of a material having high heat conductivity, the heat generating part being fixed to the second wall ; the robot controller further comprises a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion ; and the second fan is arranged so as to be opposed to the lid part and the opening portion and supplies the air to the lid part and the inside of the cover . the robot controller comprising: a housing accommodating a heat generating part that generates heat; a vent hole that is open on a first wall of the housing ; a first fan configured to supply air, introduced through the vent hole into the housing , to the heat generating part; and a lid part configured to cover the vent hole , a housing accommodating a heat generating part that generates heat; a vent hole that is open on a first wall of the housing ; a first fan configured to supply air, introduced through the vent hole into the housing , to the heat generating part; and a lid part configured to cover the vent hole , characterized in that : a second wall of the housing is made of a material having high heat conductivity, the heat generating part being fixed to the second wall ; the robot controller further comprises a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion ; and the second fan is arranged so as to be opposed to the lid part and the opening portion and supplies the air to the lid part and the inside of the cover . a second wall of the housing is made of a material having high heat conductivity, the heat generating part being fixed to the second wall ; the robot controller further comprises a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion ; and a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion ; and the second fan is arranged so as to be opposed to the lid part and the opening portion and supplies the air to the lid part and the inside of the cover .