mhurhangee/patent-ind-claim-en huggingface dataset:
Suction tip for suctioning a biological fluid, the suction tip comprising - a main body having a main axis and a wall , - a connector for a suction line , which is formed at the main body on the main axis and which defines a free connection cross section of the suction tip , and - a plurality of decentral suction holes which laterally enter into the main body , which extend through the wall of the main body and which communicate with the connector within the main body , - wherein the decentral suction holes laterally enter into the main body at an acute angle of not more than 60° with respect to the main axis in such a way that they are not directly positioned opposite to the connector for the suction line formed centrally on the main axis , - wherein a free minimum cross section of each decentral suction hole , in a continuous continuation of its course through the wall of the main body , completely overlaps with the free connection cross section of the suction tip , and - wherein a sum of areas of the free minimum cross sections of the decentral suction holes is at least as large as an area of the free connection cross section of the suction tip , characterised in - that the main body further comprises a central suction hole which extends through the wall along the main axis . - a main body having a main axis and a wall , - a connector for a suction line , which is formed at the main body on the main axis and which defines a free connection cross section of the suction tip , and - a plurality of decentral suction holes which laterally enter into the main body , which extend through the wall of the main body and which communicate with the connector within the main body , - wherein the decentral suction holes laterally enter into the main body at an acute angle of not more than 60° with respect to the main axis in such a way that they are not directly positioned opposite to the connector for the suction line formed centrally on the main axis , - wherein a free minimum cross section of each decentral suction hole , in a continuous continuation of its course through the wall of the main body , completely overlaps with the free connection cross section of the suction tip , and - wherein a sum of areas of the free minimum cross sections of the decentral suction holes is at least as large as an area of the free connection cross section of the suction tip , - that the main body further comprises a central suction hole which extends through the wall along the main axis .
An electrically operable shaver with an elongate shaver handle housing defining a longitudinal axis (I), a shaver head comprising at least one short-hair cutter unit , an additional long-hair trimmer unit disposed on the shaver handle housing , which is movable substantially parallel to the longitudinal axis (I) between a retracted idle position and an extended operating position and at least one light source , wherein, the light source is movable substantially parallel to the longitudinal axis (I) between a retracted position and an extended position and the light source is mounted on or integrated in the additional long-hair trimmer unit on a side facing away from the shaver handle housing , characterized in that the shaver head is moveable with respect to the shaver handle housing and comprises also at least one long-hair trimmer unit , and the shaver head is angled relative to the longitudinal axis (I) towards a first lateral side of the shaver handle housing which is opposite to the second lateral shaver handle housing side at which the light source is mounted on the additional long hair trimmer unit .
A catheter for scoring or slicing a lesion in a vessel, comprising: a catheter shaft including an expandable portion and a first receiver adjacent a distal end of an expandable portion of the catheter shaft ; a first cutter ; and a first carrier supporting the first cutter , the carrier having a portion distal of the first cutter positioned at least partially within the first receiver and moveable axially along the catheter shaft to deploy the first cutter along the expandable portion in an expanded condition for scoring or slicing the lesion, wherein the first carrier includes a loop distal of the expandable portion , and a second cutter is provided proximal to the expandable portion for moving distally along the expandable portion when the first cutter is moved to a deployed position. a catheter shaft including an expandable portion and a first receiver adjacent a distal end of an expandable portion of the catheter shaft ; a first cutter ; and a first carrier supporting the first cutter , the carrier having a portion distal of the first cutter positioned at least partially within the first receiver and moveable axially along the catheter shaft to deploy the first cutter along the expandable portion in an expanded condition for scoring or slicing the lesion, wherein the first carrier includes a loop distal of the expandable portion , and a second cutter is provided proximal to the expandable portion for moving distally along the expandable portion when the first cutter is moved to a deployed position.
An earpiece comprising: an electro-acoustic transducer ; a housing supporting the electro-acoustic transducer such that the housing and the electro-acoustic transducer together define a first acoustic volume and a second acoustic volume , the electro-acoustic transducer being arranged such that a first radiating surface of the transducer radiates acoustic energy into the first acoustic volume and such that a second radiating surface of the transducer radiates acoustic energy into the second acoustic volume; a front port coupling the first acoustic volume to a space outside the housing; and a rear port coupling the second acoustic volume to the space outside the housing, characterized in that respective outlet ends of the rear port and the front port combine before exiting the housing via a combined exit volume and an exit port . an electro-acoustic transducer ; a housing supporting the electro-acoustic transducer such that the housing and the electro-acoustic transducer together define a first acoustic volume and a second acoustic volume , the electro-acoustic transducer being arranged such that a first radiating surface of the transducer radiates acoustic energy into the first acoustic volume and such that a second radiating surface of the transducer radiates acoustic energy into the second acoustic volume; a front port coupling the first acoustic volume to a space outside the housing; and a rear port coupling the second acoustic volume to the space outside the housing, characterized in that respective outlet ends of the rear port and the front port combine before exiting the housing via a combined exit volume and an exit port .
Emergency vehicle, in particular fire-fighting vehicle, with a lighting unit which has at least one lighting module located in a section of the roof edge of the emergency vehicle , which has at least one support profile fixed to the emergency vehicle , which has several locating sections (24a-d) in each of which lighting elements are accommodated, wherein the locating sections (24a-d) are so aligned to one another that the lighting elements held therein illuminate different areas of space, wherein the areas of space include an area surrounding the emergency vehicle , and wherein the lighting module has at least one light-transmissive cover element fixed to the support profile , wherein the support profile has a base section on which are mounted several profile walls (29a-e), each extending in the longitudinal direction of the base section , wherein the locating sections (24a-d) are formed by the profile walls (29a-e), and wherein mounting means for mounting the lighting elements are formed on the profile walls (29a-e), characterised in that the light-transmissive cover element is so designed that all locating sections (24a-d) of the assigned lighting module are covered, wherein the light-transmissive cover element is formed in one piece and mounted through fastening means in the area of two opposite ends of the base section , and wherein the light-transmissive cover element has several emitting sections (37a-d) with differing orientation to one another, each assigned to one of the locating sections (24a-d).
A method comprising: receiving a plurality of images that are associated with an identification of a tracking target of a patient to receive radiation treatment; sorting, by a processing device using processing logic, the plurality of images into a sequence based on a motion of the patient ; providing, via a graphical user interface (GUI) provided on a display connected to said processing device , the sorted plurality of images in the sequence that is based on the motion of the patient ; providing, on the GUI a visual indicator on each of the sorted images to represent the tracking target of the patient that has been identified characterised by receiving an input selection, via the GUI, to stop display of the sorted plurality of images in the sequence; receive a further input selection, via the GUI, to remove at least one image at which the sequence has been stopped from being used to identify the tracking target of the patient; and identify the tracking target of the patient without the at least one removed image. receiving a plurality of images that are associated with an identification of a tracking target of a patient to receive radiation treatment; sorting, by a processing device using processing logic, the plurality of images into a sequence based on a motion of the patient ; providing, via a graphical user interface (GUI) provided on a display connected to said processing device , the sorted plurality of images in the sequence that is based on the motion of the patient ; providing, on the GUI a visual indicator on each of the sorted images to represent the tracking target of the patient that has been identified characterised by receiving an input selection, via the GUI, to stop display of the sorted plurality of images in the sequence; receive a further input selection, via the GUI, to remove at least one image at which the sequence has been stopped from being used to identify the tracking target of the patient; and identify the tracking target of the patient without the at least one removed image.
A system comprising: a load cell generating product weight information associated with an amount of a product remaining in a product container and having a fixed end and a free end , wherein the free end of the load cell deflects at a first rate of distance per unit load when an amount of product remaining in the product container is less than a critical load; a load cell bracket positioned such that the free end of the load cell contacts the load cell bracket when an amount of product remaining in the product container is greater than the critical load, wherein the free end of the load cell deflects at a second rate of distance per unit load when the free end of the load cell is in contact with the load cell bracket , the second rate of distance per unit load being less than the first rate of distance per unit load; and a controller that determines an amount of the product dispensed from the product container during a dispensing cycle based on the product weight information received from the load cell , characterized in that the controller enters a proof of delivery mode when the free end of the load cell is in contact with the load cell bracket and generates a proof of delivery message upon any measured weight loss, wherein the controller enters a low/out-of-product mode when the free end of the load cell is not in contact with the load cell bracket and determines the amount of a product dispensed from the product container based on the product weight information. a load cell generating product weight information associated with an amount of a product remaining in a product container and having a fixed end and a free end , wherein the free end of the load cell deflects at a first rate of distance per unit load when an amount of product remaining in the product container is less than a critical load; a load cell bracket positioned such that the free end of the load cell contacts the load cell bracket when an amount of product remaining in the product container is greater than the critical load, wherein the free end of the load cell deflects at a second rate of distance per unit load when the free end of the load cell is in contact with the load cell bracket , the second rate of distance per unit load being less than the first rate of distance per unit load; and a controller that determines an amount of the product dispensed from the product container during a dispensing cycle based on the product weight information received from the load cell , characterized in that the controller enters a proof of delivery mode when the free end of the load cell is in contact with the load cell bracket and generates a proof of delivery message upon any measured weight loss, wherein the controller enters a low/out-of-product mode when the free end of the load cell is not in contact with the load cell bracket and determines the amount of a product dispensed from the product container based on the product weight information.
A method, comprising: (a) using one or more accelerometers of a smartphone to generate a plurality of accelerometer output data sets, wherein each accelerometer output data set contains a plurality of accelerometer output data values for a different period of time; (b) determining from each accelerometer output data set a corresponding estimated heart rate, EHR, value, thereby determining a sequence of EHR values; (c) determining from each accelerometer output data set a corresponding estimated accuracy, EA, value, thereby determining a sequence of EA values; and characterised by (d) using the sequence of EA values determined in (c) to adjust the sequence of EHR values determined in (b) thereby generating a corresponding sequence of adjusted heart rate, AHR, values, wherein steps (a), (b), (c) and (d) are performed by the smartphone. (a) using one or more accelerometers of a smartphone to generate a plurality of accelerometer output data sets, wherein each accelerometer output data set contains a plurality of accelerometer output data values for a different period of time; (b) determining from each accelerometer output data set a corresponding estimated heart rate, EHR, value, thereby determining a sequence of EHR values; (c) determining from each accelerometer output data set a corresponding estimated accuracy, EA, value, thereby determining a sequence of EA values; and characterised by (d) using the sequence of EA values determined in (c) to adjust the sequence of EHR values determined in (b) thereby generating a corresponding sequence of adjusted heart rate, AHR, values, wherein steps (a), (b), (c) and (d) are performed by the smartphone.
Firearm , in particular, a sporting firearm, comprising: a stock with a forestock extending along a barrel , and a rear stock for resting the firearm , a breechblock unit mounted and attached to the stock , which comprises a barrel-side end , a rear end opposite the barrel side end and two opposite side walls , which connect the barrel side end and the rear end with each other, wherein, in at least one side wall , a loading opening for a bullet is provided, and a barrel , wherein the barrel with a breechblock-side end is received in a cylindrical bore hole at the barrel side end of the breechblock unit , wherein the firearm comprises a first bearing unit for mounting the breechblock unit on the stock , wherein the first bearing unit comprises a first bearing element , which is arranged at the rear end of the breechblock unit and which is the only bearing element on the breechblock unit for mounting the breechblock unit on the stock , wherein the first bearing unit comprises a second bearing element on a stock section abutting the rear end of the breechblock unit , and wherein a single second bearing unit for mounting the barrel is provided on the barrel , wherein the second bearing unit is at a distance from the breechblock unit and the first bearing unit .
Capsule closure device for closing two-piece capsules each having a capsule upper portion and a capsule lower portion , wherein the capsule closure device comprises a capsule upper portion receiving member and a capsule lower portion receiving member , wherein the capsule upper portion receiving member has a receiving hole and an introduction hole which is arranged coaxially relative to the receiving hole , and wherein the capsule upper portion receiving member has at the inner side thereof between the receiving hole and the introduction hole a support shoulder for supporting the capsule upper portion , characterized in that the capsule upper portion receiving member has at the inner side thereof at the introduction hole at least one ventilation hole . wherein the capsule closure device comprises a capsule upper portion receiving member and a capsule lower portion receiving member , wherein the capsule upper portion receiving member has a receiving hole and an introduction hole which is arranged coaxially relative to the receiving hole , and wherein the capsule upper portion receiving member has at the inner side thereof between the receiving hole and the introduction hole a support shoulder for supporting the capsule upper portion , characterized in that the capsule upper portion receiving member has at the inner side thereof at the introduction hole at least one ventilation hole .
A method for operating a user equipment in a wireless communication network, wherein the user equipment comprises an antenna device providing a configurable transmission pattern , the method comprising: - determining an orientation of the user equipment with an orientation determining sensor of the user equipment , - determining a user equipment position of the user equipment with a position determining sensor of the user equipment , - determining, at the user equipment , a base station position of a base station of the wireless communication network, and - configuring the transmission pattern of the antenna device based on the determined orientation, the determined user equipment position, and the determined base station position, characterized in that determining the orientation comprises determining the orientation of the user equipment with respect to a geographical horizon , and that configuring the transmission pattern of the antenna device comprises leveling the transmission pattern along the geographical horizon in a direction of the determined base station position. - determining an orientation of the user equipment with an orientation determining sensor of the user equipment , - determining a user equipment position of the user equipment with a position determining sensor of the user equipment , - determining, at the user equipment , a base station position of a base station of the wireless communication network, and - configuring the transmission pattern of the antenna device based on the determined orientation, the determined user equipment position, and the determined base station position, characterized in that determining the orientation comprises determining the orientation of the user equipment with respect to a geographical horizon , and that configuring the transmission pattern of the antenna device comprises leveling the transmission pattern along the geographical horizon in a direction of the determined base station position. characterized in that determining the orientation comprises determining the orientation of the user equipment with respect to a geographical horizon , and that configuring the transmission pattern of the antenna device comprises leveling the transmission pattern along the geographical horizon in a direction of the determined base station position.
An AC motor comprising: a stator iron core in which a plurality of slots are disposed; and a plurality of stator coils inserted in each of the slots in a double-layer winding system in such a manner that the plurality of stator coils are formed in a rectangular cross sectional shape in which one coil side is inserted on an interior side of one of the plurality of slots and the other coil side is inserted on an entry side of another slot of the plurality of slots , characterized in that each of the slots is provided with a space that enables the one coil side to be rotated on the interior side of the slot when the other coil side is lifted up from the other slot ; wherein, in each of the slots , a width of the slot is uniform up to a predetermined depth position, and the space is formed by gradually increasing the width of the slot towards a groove bottom portion from the predetermined depth position. a stator iron core in which a plurality of slots are disposed; and a plurality of stator coils inserted in each of the slots in a double-layer winding system in such a manner that the plurality of stator coils are formed in a rectangular cross sectional shape in which one coil side is inserted on an interior side of one of the plurality of slots and the other coil side is inserted on an entry side of another slot of the plurality of slots , characterized in that each of the slots is provided with a space that enables the one coil side to be rotated on the interior side of the slot when the other coil side is lifted up from the other slot ; wherein, in each of the slots , a width of the slot is uniform up to a predetermined depth position, and the space is formed by gradually increasing the width of the slot towards a groove bottom portion from the predetermined depth position.
A device for fabricating a three-dimensional fabrication object, comprising: a fabrication part ; a control unit ; a flattening member whereby the control unit controls the flattening member to place powder in the fabrication part to form an excessively thick powder layer and remove the powder on a top surface side of the excessively thick powder layer multiple times to obtain a powder layer while moving in a direction orthogonal to a lamination direction of the powder layer ; and a fabrication unit whereby the control unit controls the fabrication unit to bind the powder in the powder layer to form a laminar fabrication object , characterized in that the control unit is configured to control the flattening member such that an amount of a layer thickness of the powder removed for the last time is less than that for any other time and the flattening member decreases an amount of the powder removed as a number of removing increases. a fabrication part ; a control unit ; a flattening member whereby the control unit controls the flattening member to place powder in the fabrication part to form an excessively thick powder layer and remove the powder on a top surface side of the excessively thick powder layer multiple times to obtain a powder layer while moving in a direction orthogonal to a lamination direction of the powder layer ; and a fabrication unit whereby the control unit controls the fabrication unit to bind the powder in the powder layer to form a laminar fabrication object , characterized in that the control unit is configured to control the flattening member such that an amount of a layer thickness of the powder removed for the last time is less than that for any other time and the flattening member decreases an amount of the powder removed as a number of removing increases.