mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for the post-processing of components manufactured by additive manufacturing processes, said apparatus comprising a depowdering chamber for the pre-cleaning of the components, in which depowdering chamber a depowdering unit is provided, a chamber for the post-treatment of the components, wherein both chambers can be hermetically sealed, characterized in that the chamber for the post-treatment of the components is a blasting chamber comprising a blasting device for blasting media composed of glass, ceramic material or plastic, in that the depowdering chamber and the blasting chamber are arranged next to one another, in that a partition wall is provided between the two chambers and has a passage opening which can be closed by a flap , and in that the depowdering unit in the depowdering chamber can be closed by a lid which opens in an automated manner. a depowdering chamber for the pre-cleaning of the components, in which depowdering chamber a depowdering unit is provided, a chamber for the post-treatment of the components, wherein both chambers can be hermetically sealed, characterized in that the chamber for the post-treatment of the components is a blasting chamber comprising a blasting device for blasting media composed of glass, ceramic material or plastic, in that the depowdering chamber and the blasting chamber are arranged next to one another, in that a partition wall is provided between the two chambers and has a passage opening which can be closed by a flap , and in that the depowdering unit in the depowdering chamber can be closed by a lid which opens in an automated manner.
An electric glue gun, comprising a housing , a glue tube holder arranged at a front end of the housing , and a push rod disposed on the housing and moveable forward and rearward relative to the glue tube holder , wherein a control board , a main switch , an electric motor and a transmission mechanism are provided inside the housing , the main switch is electrically connected to the control board for controlling power on/off, the electric motor is electrically connected to the control board to drive the push rod to move forward or rearward via the transmission mechanism ; and the electric glue gun further comprising a sensor switch for facilitating control of a forward movement stroke and a rearward movement stroke of the push rod , the sensor switch is electrically connected to the control board , such that the control board determines whether the push rod is moved to a limit position based on information feedback from the sensor switch, characterised in that a sensing element is provided at a rear end of the push rod , and the sensor switch comprises a second sensor switch corresponding to the sensing element for feeding back the forward movement stroke of the push rod , wherein two second sensor switches are spaced apart from each other in a front-rear direction; in an operating state, the push rod is moved forward to a first limit position corresponding to a rear one of the second sensor switches; when in a non-operating state, the push rod is moved forward to a second limit position corresponding to a front one of the second sensor switches.
A compactor roller, in particular for a soil compactor with at least one roller divided in the direction of a roller rotary axis, comprising a roller shell surrounding a roller rotary axis (A) and longitudinally extended in the direction of the roller rotary axis (A), and at least one roller disk connected to the roller shell at its inner circumferential surface in the inner roller space surrounded by the roller shell , wherein a reinforcing arrangement is provided associated with the roller disk with a reinforcing ring arranged in the inner roller space at an axial distance to the roller disk and connected to the roller shell on its inner circumferential surface and with a reinforcing structural group connected to the roller disk and to the reinforcing ring , wherein the reinforcing structural group comprises a plurality of reinforcing struts arranged around the roller rotary axis (A) at a distance to each other and connected to the roller disk and to the reinforcing ring , characterized in that at least one reinforcing strut is arranged with a longitudinal strut axis (S) which is not parallel to the roller rotary axis (A).
An air conditioner comprising a discharge device comprising: a discharge electrode which has a discharge member ; a loop-like terminal mounted to an end of the discharge member in a longitudinal direction; and a tube made of an electrically insulating resin that has flexibility and covering a mounting portion between an end of the discharge member and the terminal , wherein an end of the tube is secured to the end of the discharge member and the terminal without any space therebetween by heat shrinkage or bonding, and a counter electrode facing the discharge member , characterized in that the discharge member of the discharge electrode has a rectangular section and a potential difference between the discharge member and the terminal is 0.1 V or less. a discharge electrode which has a discharge member ; a loop-like terminal mounted to an end of the discharge member in a longitudinal direction; and a tube made of an electrically insulating resin that has flexibility and covering a mounting portion between an end of the discharge member and the terminal , wherein an end of the tube is secured to the end of the discharge member and the terminal without any space therebetween by heat shrinkage or bonding, and a counter electrode facing the discharge member , characterized in that the discharge member of the discharge electrode has a rectangular section and a potential difference between the discharge member and the terminal is 0.1 V or less.
Sheet of insulating plates comprising successively placed lamellae of insulating plates attached to each other at their edge side which is cross directional in relation to the longitudinal direction (P) of the sheet of insulating plates, alternately at the upper corners and lower corners of the cross directional edge sides, whereby thus formed uniform sheet of insulating plates comprising several lamellae of insulating plates can be folded into accordion-like folded stack of lamellae of insulating plates and unfolded into a uniform sheet of insulating plates, which sheet of insulating plates has an upper surface and a lower surface, characterized in that the upper surface of the sheet of insulating plates comprises a surface layer which is arranged in the longitudinal direction (P) of the sheet of insulating plates alternately attached to and detached from the lamellae of the insulating plates in groups of two successive lamellae of insulating plates.
A method for distributing graphical processing unit (GPU) processing, comprising: instantiating, by a computing device, a virtual GPU manager on the computing device; querying, by the virtual GPU manager , a plurality of physical GPUs to identify processing performance variables of the plurality of physical GPUs; generating, by the virtual GPU manager and based on one or more of the processing performance variables of the plurality of physical GPUs, a logical GPU comprising a logical linkage between a quantity of physical GPUs from the plurality of physical GPUs; receiving, by the virtual GPU manager , a rendering request; mapping, by the virtual GPU manager , the rendering request to the logical GPU based on the processing performance variables of the one or more of the plurality of physical GPUs; sending, by the virtual GPU manager , the rendering request to the mapped logical GPU; receiving, by the virtual GPU manager , an indication of a change to network flow rates corresponding to the rendering request; and decreasing, by the virtual GPU manager and based on a determination that the change to the network flow rates indicates network congestion, the quantity of physical GPUs of the logical GPU. instantiating, by a computing device, a virtual GPU manager on the computing device; querying, by the virtual GPU manager , a plurality of physical GPUs to identify processing performance variables of the plurality of physical GPUs; generating, by the virtual GPU manager and based on one or more of the processing performance variables of the plurality of physical GPUs, a logical GPU comprising a logical linkage between a quantity of physical GPUs from the plurality of physical GPUs; receiving, by the virtual GPU manager , a rendering request; mapping, by the virtual GPU manager , the rendering request to the logical GPU based on the processing performance variables of the one or more of the plurality of physical GPUs; sending, by the virtual GPU manager , the rendering request to the mapped logical GPU; receiving, by the virtual GPU manager , an indication of a change to network flow rates corresponding to the rendering request; and decreasing, by the virtual GPU manager and based on a determination that the change to the network flow rates indicates network congestion, the quantity of physical GPUs of the logical GPU.
An adaptive radio frequency, RF, module comprising: an RF unit ; a first bus connector configured to receive a first voltage ; a second bus connector configured to receive a second voltage ; and a switching circuit configured to supply an operational voltage to the RF unit , wherein the switching circuit switches between the first bus connector and the second bus connector to receive the first voltage or the second voltage , characterized in that the switching circuit is configured to switch between the first bus connector and the second bus connector according to a voltage detected at one of the bus connectors . an RF unit ; a first bus connector configured to receive a first voltage ; a second bus connector configured to receive a second voltage ; and a switching circuit configured to supply an operational voltage to the RF unit , wherein the switching circuit switches between the first bus connector and the second bus connector to receive the first voltage or the second voltage , characterized in that the switching circuit is configured to switch between the first bus connector and the second bus connector according to a voltage detected at one of the bus connectors .
-Thermal box comprising a temperature homogenizing arrangement, the temperature homogenizing arrangement comprising a compartment-shaped dispenser cabinet provided inside the thermal box , where the dispenser cabinet has holes at the bottom for receiving air and one or more fans at the upper end for exhausting the air entering through said holes , where the dispenser cabinet has in its interior cooling or heating elements such that air forced in through the holes flows through said cooling or heating elements , where the dispenser cabinet has a lid for introducing the cooling or heating elements and internal walls having fins to prevent the cooling or heating elements from touching said internal walls, the arrangement further comprising an electronic control module supported outside the thermal box by a support , where the electronic control module comprises a battery , a charger for charging said battery , a memory, a temperature display and a control button , where the charger is configured to be connected to a vehicle plug which, in turn, is connected to a vehicle or to a power source where the electronic control module is connected to a temperature sensor installed inside the thermal box , and where the electronic control module controls the operation of the fans according to the temperature measured by the temperature sensor . the temperature homogenizing arrangement comprising a compartment-shaped dispenser cabinet provided inside the thermal box , where the dispenser cabinet has holes at the bottom for receiving air and one or more fans at the upper end for exhausting the air entering through said holes , where the dispenser cabinet has in its interior cooling or heating elements such that air forced in through the holes flows through said cooling or heating elements , where the dispenser cabinet has a lid for introducing the cooling or heating elements and internal walls having fins to prevent the cooling or heating elements from touching said internal walls, the arrangement further comprising an electronic control module supported outside the thermal box by a support , where the electronic control module comprises a battery , a charger for charging said battery , a memory, a temperature display and a control button , where the charger is configured to be connected to a vehicle plug which, in turn, is connected to a vehicle or to a power source where the electronic control module is connected to a temperature sensor installed inside the thermal box , and where the electronic control module controls the operation of the fans according to the temperature measured by the temperature sensor .
A computer-implemented method for automatically detecting pole-like objects for a location along a region of a roadway , the method comprising: receiving point cloud data related to a three-dimensional volume associated with the location along the region of a roadway; identifying horizontal slices of point cloud data based on a predetermined horizontal slice thickness or a predetermined resolution; generating a 3D occupancy grid made of horizontal layers and representing the 3D volume, wherein the horizontal layers are two-dimensional occupancy grids representing the identified horizontal slices of point cloud data, and wherein each cell of the 3D occupancy grid is marked as either occupied or unoccupied based on whether point cloud data is received for the respective cell volume; generating two-dimensional occupancy images for the horizontal slices of point cloud data based on the respective 2D occupancy grids, wherein each 2D occupancy image for a respective horizontal slice of point cloud data thereby represents a finite height of point cloud data; detecting vertical clusters of point cloud data by identifying similar occupied regions between adjacent 2D occupancy images; calculating features that represent the vertical clusters' shape, orientation, size, and point density; inputting the features into a pre-trained machine learning algorithm to determine whether the vertical clusters of point cloud data represent pole-like objects; and modeling the vertical clusters of point cloud data determined to represent pole-like objects as cylinders . receiving point cloud data related to a three-dimensional volume associated with the location along the region of a roadway; identifying horizontal slices of point cloud data based on a predetermined horizontal slice thickness or a predetermined resolution; generating a 3D occupancy grid made of horizontal layers and representing the 3D volume, wherein the horizontal layers are two-dimensional occupancy grids representing the identified horizontal slices of point cloud data, and wherein each cell of the 3D occupancy grid is marked as either occupied or unoccupied based on whether point cloud data is received for the respective cell volume; generating two-dimensional occupancy images for the horizontal slices of point cloud data based on the respective 2D occupancy grids, wherein each 2D occupancy image for a respective horizontal slice of point cloud data thereby represents a finite height of point cloud data; detecting vertical clusters of point cloud data by identifying similar occupied regions between adjacent 2D occupancy images; calculating features that represent the vertical clusters' shape, orientation, size, inputting the features into a pre-trained machine learning algorithm to determine whether the vertical clusters of point cloud data represent pole-like objects; and modeling the vertical clusters of point cloud data determined to represent pole-like objects as cylinders .
A composition for use in preventing or treating diabetes, the composition comprising an oxyntomodulin analog conjugate as an active ingredient wherein the oxyntomodulin analog conjugate comprises an oxyntomodulin analog comprising the amino acid sequence of SEQ ID NO: 23; an immunoglobulin Fc region; and a non-peptidyl polymer, wherein the non-peptidyl polymer links the oxyntomodulin analog to the immunoglobulin Fc region via a covalent bond. an oxyntomodulin analog comprising the amino acid sequence of SEQ ID NO: 23; an immunoglobulin Fc region; and a non-peptidyl polymer, wherein the non-peptidyl polymer links the oxyntomodulin analog to the immunoglobulin Fc region via a covalent bond.
A cap remover, comprising: an outer member ; an inner member (106; 208), and an activation member at least partially received within the outer member characterized in that the activation member is configured to move relative to the outer member; and the inner member is positioned within the outer member and configured to radially compress and to exert a radial force on a cap under an axial pressure force asserted by the activation member that moves the activation member from a first axial position to a second axial position, such that the inner member compresses from a first position to a second position. an outer member ; an inner member (106; 208), and an activation member at least partially received within the outer member characterized in that the activation member is configured to move relative to the outer member; and the inner member is positioned within the outer member and configured to radially compress and to exert a radial force on a cap under an axial pressure force asserted by the activation member that moves the activation member from a first axial position to a second axial position, such that the inner member compresses from a first position to a second position.
An interspinous process fusion device , the device comprising: a distal tip member having a convex shaped end; a proximal plate ; a middle plate interposed between the distal tip member and the proximal plate ; a first pair of movable wings positionable between the distal tip member and the middle plate , wherein the first pair of movable wings includes a superior first movable wing and an inferior first movable wing ; and a second pair of movable wings positionable between the proximal plate and the middle plate , wherein the second pair of movable wings includes a superior second movable wing and an inferior second movable wing ; and a first actuation screw directly connected to the superior first movable wing and to the superior second movable wing through a first hole in the superior first movable wing and in the superior second movable wing ; and a second actuation screw directly connected to the inferior first movable wing and to the inferior second movable wing through a second hole in the inferior first movable wing and in the inferior second movable wing , operation of the first and second actuation screws causing each of the movable wings to rotate from an insertion configuration, in which the device is cylindrical in shape, the first pair of movable wings is positioned primarily between the distal tip member and the middle plate , and the second pair of movable wings is positioned primarily between the proximal plate and the middle plate , to an expanded configuration, in which the movable wings extend from the proximal plate , the middle plate , and the distal tip member . a distal tip member having a convex shaped end; a proximal plate ; a middle plate interposed between the distal tip member and the proximal plate ; a first pair of movable wings positionable between the distal tip member and the middle plate , wherein the first pair of movable wings includes a superior first movable wing and an inferior first movable wing ; and a second pair of movable wings positionable between the proximal plate and the middle plate , wherein the second pair of movable wings includes a superior second movable wing and an inferior second movable wing ; and a first actuation screw directly connected to the superior first movable wing and to the superior second movable wing through a first hole in the superior first movable wing and in the superior second movable wing ; and a second actuation screw directly connected to the inferior first movable wing and to the inferior second movable wing through a second hole in the inferior first movable wing and in the inferior second movable wing , operation of the first and second actuation screws causing each of the movable wings to rotate from an insertion configuration, in which the device is cylindrical in shape, the first pair of movable wings is positioned primarily between the distal tip member and the middle plate , and the second pair of movable wings is positioned primarily between the proximal plate and the middle plate , to an expanded configuration, in which the movable wings extend from the proximal plate , the middle plate , and the distal tip member .
A method of detecting and identifying arcing comprising converting a current from a load to a proportional voltage, characterized in that said method further comprises: converting the current to a digitized current by an analog-to-digital current converter at a sample frequency; converting the proportional voltage to a digitized voltage by an analog-to-digital voltage converter at the sample frequency; determining a waveform of a cycle of a primary load current as a substantially periodic portion of the digitized current; determining a noise signal by subtracting the determined waveform of a cycle of the primary load current from a cycle of the digitized current; setting by an arc window comparator circuit a time window within a cycle of the digitized voltage by determining a time interval associated with a peak voltage portion of the waveform of the cycle of the digitized voltage; determining a probability density of the noise signal according to the time window set by the arc window comparator circuit; comparing the probability density of the noise signal with at least one model probability density; and generating an output indicative a positive arc detection based on the comparing . converting the current to a digitized current by an analog-to-digital current converter at a sample frequency; converting the proportional voltage to a digitized voltage by an analog-to-digital voltage converter at the sample frequency; determining a waveform of a cycle of a primary load current as a substantially periodic portion of the digitized current; determining a noise signal by subtracting the determined waveform of a cycle of the primary load current from a cycle of the digitized current; setting by an arc window comparator circuit a time window within a cycle of the digitized voltage by determining a time interval associated with a peak voltage portion of the waveform of the cycle of the digitized voltage; determining a probability density of the noise signal according to the time window set by the arc window comparator circuit; comparing the probability density of the noise signal with at least one model probability density; and generating an output indicative a positive arc detection based on the comparing .