mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid distribution unit apparatus comprising: an enclosure having an interior portion, exterior portion, a bottom, and a length; a first elongated bus bar extending along at least a portion of the length of the interior portion of the enclosure and configured to connect to a first set of one or more power cables entering the interior portion from the bottom of the enclosure; a second elongated bus bar extending along at least a portion of the length of the interior of the enclosure and configured to connect to a second set of one or more power cables entering the interior portion from the bottom of the enclosure; and a plurality of adapters extending from the exterior portion of the enclosure , each adapter including a first set of one or more connectors configured to connect one or more power jumper cables to the first and second elongated bus bars and a second set of one or more connectors configured to connect one or more fiber optic jumper cables to the ends of one or more fiber optic cables entering the interior portion of the enclosure from the bottom of the enclosure, wherein the unit is characterised in that the unit further comprises: one or more fiber optic cable support elements coupled to opposite sides of the enclosure and configured to retain one or more fiber optic cables using one or more fasteners, wherein the one or more fiber optic cable support elements are disposed between the one or more retained fiber optic cables and a dust cover that is removably attachable to the hybrid distribution unit apparatus. an enclosure having an interior portion, exterior portion, a bottom, and a length; a first elongated bus bar extending along at least a portion of the length of the interior portion of the enclosure and configured to connect to a first set of one or more power cables entering the interior portion from the bottom of the enclosure; a second elongated bus bar extending along at least a portion of the length of the interior of the enclosure and configured to connect to a second set of one or more power cables entering the interior portion from the bottom of the enclosure; and a plurality of adapters extending from the exterior portion of the enclosure , each adapter including a first set of one or more connectors configured to connect one or more power jumper cables to the first and second elongated bus bars and a second set of one or more connectors configured to connect one or more fiber optic jumper cables to the ends of one or more fiber optic cables entering the interior portion of the enclosure from the bottom of the enclosure, wherein the unit is characterised in that the unit further comprises: one or more fiber optic cable support elements coupled to opposite sides of the enclosure and configured to retain one or more fiber optic cables using one or more fasteners, wherein the one or more fiber optic cable support elements are disposed between the one or more retained fiber optic cables and a dust cover that is removably attachable to the hybrid distribution unit apparatus.
An artificial turf infill comprising an olive pit material , characterized in that the artificial turf infill further comprises: - microporous zeolite particles , - wherein the olive pit material has a bimodal size distribution with a major mode and a minor mode, - wherein the major mode comprises rounded, thermally treated olive pit fragments and has a peak between 0.5 mm to 4.0 mm, more in particular 0.5 mm to 2.5 mm, and most in particular 0.5 mm to 2.0 mm, and - wherein the minor mode comprises olive pit particles of less than 63 μm in an amount of at least 0.5 wt% and has a peak at less than 63 μm. - microporous zeolite particles , - wherein the olive pit material has a bimodal size distribution with a major mode and a minor mode, - wherein the major mode comprises rounded, thermally treated olive pit fragments and has a peak between 0.5 mm to 4.0 mm, more in particular 0.5 mm to 2.5 mm, and most in particular 0.5 mm to 2.0 mm, and - wherein the minor mode comprises olive pit particles of less than 63 μm in an amount of at least 0.5 wt% and has a peak at less than 63 μm.
A check valve comprising: a housing ; a fluid passage extending through the housing; a seat disposed in the fluid passage; a valve member positioned in the passage to engage the seat and control fluid flow through the fluid passage; and a stop extending through the housing to engage the valve member, the stop comprising: a rod having a first end terminating outside of the housing, a second end terminating in the fluid passage, and a channel within the rod; wherein the stop is accessible from outside the housing to adjust a distance between the second end of the rod and the valve member to thereby adjust a distance the valve member can travel from the seat, characterised in that the stop further comprises: a pump valve disposed within the channel within the rod to control fluid flow through the channel. a housing ; a fluid passage extending through the housing; a seat disposed in the fluid passage; a valve member positioned in the passage to engage the seat and control fluid flow through the fluid passage; and a stop extending through the housing to engage the valve member, the stop comprising: a rod having a first end terminating outside of the housing, a second end terminating in the fluid passage, and a channel within the rod; wherein the stop is accessible from outside the housing to adjust a distance between the second end of the rod and the valve member to thereby adjust a distance the valve member can travel from the seat, a rod having a first end terminating outside of the housing, a second end terminating in the fluid passage, and a channel within the rod; wherein the stop is accessible from outside the housing to adjust a distance between the second end of the rod and the valve member to thereby adjust a distance the valve member can travel from the seat, characterised in that the stop further comprises: a pump valve disposed within the channel within the rod to control fluid flow through the channel.
A power semiconductor device comprising: a heat conducting and insulating ceramic substrate ; a circuit pattern which is an unplated Cu pattern formed on a top surface of said substrate ; a power semiconductor element bonded to said circuit pattern by a first solder formed in a first reflow process by melting a first alloy consisting of Sn, Sb, and Cu, said first alloy having a weight percent of Cu in the range of 0.5 to 1%, inclusive, and a weight percent of Sb in the range of 6.5 to 8%, inclusive, the remaining weight percents of said first alloy being Sn, and said first alloy having a solidus temperature in the range of 235 to 238°C, inclusive, wherein the Cu content of the first solder is increased by Cu diffused from the circuit pattern into the first solder ; a terminal circuit pattern formed on said top surface of said substrate ; and a terminal bonded to said terminal circuit pattern by a second solder formed in a second reflow process by melting an Sn-Ag-based or Sn-Ag-Cu-based unleaded solder having a liquidus temperature in the range of 215 to 220°C, inclusive, said second reflow process being performed after said first reflow process and being performed at a temperature lower than 235°C, said first solder not having remelted in said second reflow process. a heat conducting and insulating ceramic substrate ; a circuit pattern which is an unplated Cu pattern formed on a top surface of said substrate ; a power semiconductor element bonded to said circuit pattern by a first solder formed in a first reflow process by melting a first alloy consisting of Sn, Sb, and Cu, said first alloy having a weight percent of Cu in the range of 0.5 to 1%, inclusive, and a weight percent of Sb in the range of 6.5 to 8%, inclusive, the remaining weight percents of said first alloy being Sn, and said first alloy having a solidus temperature in the range of 235 to 238°C, inclusive, wherein the Cu content of the first solder is increased by Cu diffused from the circuit pattern into the first solder ; a terminal circuit pattern formed on said top surface of said substrate ; and a terminal bonded to said terminal circuit pattern by a second solder formed in a second reflow process by melting an Sn-Ag-based or Sn-Ag-Cu-based unleaded solder having a liquidus temperature in the range of 215 to 220°C, inclusive, said second reflow process being performed after said first reflow process and being performed at a temperature lower than 235°C, said first solder not having remelted in said second reflow process.
Battery cell , in particular lithium-ion battery cell, comprising an anode connected to a negative terminal and a cathode connected to a positive terminal , wherein the anode and the cathode are wound around a winding axis (A) to form an electrode winding , wherein the anode has a plurality of anode contact tabs that extend parallel to the winding axis (A) and the cathode has a plurality of cathode contact tabs that extend parallel to the winding axis (A), wherein the negative terminal has a first connection opening into which the anode contact tabs project and the positive terminal has a second connection opening into which the cathode contact tabs project, wherein the anode contact tabs in the first connection opening are connected to the negative terminal and the cathode contact tabs in the second connection opening are connected to the positive terminal , wherein the negative terminal is arranged completely outside the cell housing and the positive terminal is arranged completely outside the cell housing , wherein the negative terminal and the positive terminal are arranged on a cover surface of the cell housing ; wherein a first rivet and a second rivet grip both sides of the cover surface of the cell housing , wherein the anode contact tabs grip both sides of the cover surface and the first rivet and the cathode contact tabs grip both sides of the cover surface and the second rivet , and wherein the first rivet , outside the cell housing , has a first flange to which the negative terminal is welded and the second rivet , outside the cell housing , has a second flange to which the positive terminal is welded.
An apparatus for connecting a device to an endoscope , the apparatus comprising: a multi-tined connector configured to engage with a port of the endoscope having a non-circular flange, the multi-tined connector comprising: a body portion having a lumen axially extending therethrough and an outer locking interface; and a plurality of tines connected to the body portion, the tines having outer tapered surfaces, being radially deflectable, and operating between an engaged position and a disengaged position, wherein in the engaged position, the tines engage with the port; and a locking sleeve operating between a locked position and an unlocked position, the locking sleeve comprising: an inner engagement surface; and an inner locking interface configured to engage with the outer locking interface; wherein in the locked position, the locking sleeve holds the tines in the engaged position, and in the unlocked position, the locking sleeve leaves the tines in the disengaged position; characterized by an anti-rotational key integral to or received within the lumen of the body portion of the multi-tined connector . a multi-tined connector configured to engage with a port of the endoscope having a non-circular flange, the multi-tined connector comprising: a body portion having a lumen axially extending therethrough and an outer locking interface; and a plurality of tines connected to the body portion, the tines having outer tapered surfaces, being radially deflectable, and operating between an engaged position and a disengaged position, wherein in the engaged position, the tines engage with the port; and a body portion having a lumen axially extending therethrough and an outer locking interface; and a plurality of tines connected to the body portion, the tines having outer tapered surfaces, being radially deflectable, and operating between an engaged position and a disengaged position, wherein in the engaged position, the tines engage with the port; and a locking sleeve operating between a locked position and an unlocked position, the locking sleeve comprising: an inner engagement surface; and an inner locking interface configured to engage with the outer locking interface; wherein in the locked position, the locking sleeve holds the tines in the engaged position, and in the unlocked position, the locking sleeve leaves the tines in the disengaged position; characterized by an inner engagement surface; and an inner locking interface configured to engage with the outer locking interface; wherein in the locked position, the locking sleeve holds the tines in the engaged position, and in the unlocked position, the locking sleeve leaves the tines in the disengaged position; characterized by an anti-rotational key integral to or received within the lumen of the body portion of the multi-tined connector .
A putter type golf club head comprising: a front end having a striking surface ; a toe end ; a heel end opposite the toe end; a top rail ; a sole opposite the top rail; a leading edge positioned between the front end and the sole ; and a recess extending rearward from the front end ; and a face insert positioned within the recess, the face insert comprising: a polymeric material ; a frame ; a plurality of grooves between the top rail and the sole , each groove of the plurality of grooves extending between the toe end and the heel end ; wherein: the polymeric material and the frame form a portion of the front striking surface , leading edge , and sole such that the face insert forms at least 75% of the front end and at least 10% of the sole of the putter type golf club head the width of each of the plurality of grooves varies in a direction extending between the heel end and the toe end ; and the width of each of the plurality of grooves varies in a direction extending from the top rail to the sole . a front end having a striking surface ; a toe end ; a heel end opposite the toe end; a top rail ; a sole opposite the top rail; a leading edge positioned between the front end and the sole ; and a recess extending rearward from the front end ; and a face insert positioned within the recess, the face insert comprising: a polymeric material ; a frame ; a plurality of grooves between the top rail and the sole , each groove of the plurality of grooves extending between the toe end and the heel end ; a polymeric material ; a frame ; a plurality of grooves between the top rail and the sole , each groove of the plurality of grooves extending between the toe end and the heel end ; wherein: the polymeric material and the frame form a portion of the front striking surface , leading edge , and sole such that the face insert forms at least 75% of the front end and at least 10% of the sole of the putter type golf club head the width of each of the plurality of grooves varies in a direction extending between the heel end and the toe end ; and the width of each of the plurality of grooves varies in a direction extending from the top rail to the sole . the polymeric material and the frame form a portion of the front striking surface , leading edge , and sole such that the face insert forms at least 75% of the front end and at least 10% of the sole of the putter type golf club head the width of each of the plurality of grooves varies in a direction extending between the heel end and the toe end ; and the width of each of the plurality of grooves varies in a direction extending from the top rail to the sole .
A system, comprising: a computing device operable to render video content for display on a display device and to periodically refresh that display device, the video content including multiple application windows; a desktop compositor operable to wake and execute commands to compose video frames that are composited surfaces that include the multiple application windows and to initiate a buffer flip to deliver the video frames to the display device; and a high resolution timer operable to cause the desktop compositor to wake in multiple instances between consecutive display refreshes to execute the commands if rendered video content is available. a computing device operable to render video content for display on a display device and to periodically refresh that display device, the video content including multiple application windows; a desktop compositor operable to wake and execute commands to compose video frames that are composited surfaces that include the multiple application windows and to initiate a buffer flip to deliver the video frames to the display device; and a high resolution timer operable to cause the desktop compositor to wake in multiple instances between consecutive display refreshes to execute the commands if rendered video content is available.
A drone with a wind guide part , the drone comprising: a body ; an inlet unit accommodated in the body to introduce wind therein; at least one wind guide part spaced apart from the body wherein the wind guide part comprises: a supply part receiving wind from a connecting duct ; a discharge part discharging the wind supplied to the supply part ; and a wind passage formed between the supply part and the discharge part to allow the wind to flow therethrough; and wherein the drone further comprises: the connecting duct connecting the body with the wind guide part to cause the wind introduced from the inlet unit to flow into the wind guide part ; wherein the wind guide part is configured to generate a lift force and discharges the wind moved from the connecting duct to thereby allow the body to fly, characterized in that the wind guide part is formed in a ring shape, and comprises an outer circumferential part provided on an outer circumference thereof, an inner circumferential part provided on an inner circumference thereof, an upper side part provided on an upper portion between the outer circumferential part and the inner circumferential part , and a lower side part provided on a lower portion between the outer circumferential part and the inner circumferential part , and the supply part is formed on the outer circumferential part , the discharge part is formed on the inner circumferential part , and the wind passage is provided between the outer circumferential part and the inner circumferential part . a body ; an inlet unit accommodated in the body to introduce wind therein; at least one wind guide part spaced apart from the body wherein the wind guide part comprises: a supply part receiving wind from a connecting duct ; a discharge part discharging the wind supplied to the supply part ; and a wind passage formed between the supply part and the discharge part to allow the wind to flow therethrough; a supply part receiving wind from a connecting duct ; a discharge part discharging the wind supplied to the supply part ; and a wind passage formed between the supply part and the discharge part to allow the wind to flow therethrough; the connecting duct connecting the body with the wind guide part to cause the wind introduced from the inlet unit to flow into the wind guide part ; wherein the wind guide part is configured to generate a lift force and discharges the wind moved from the connecting duct to thereby allow the body to fly, characterized in that the wind guide part is formed in a ring shape, and comprises an outer circumferential part provided on an outer circumference thereof, an inner circumferential part provided on an inner circumference thereof, an upper side part provided on an upper portion between the outer circumferential part and the inner circumferential part , and a lower side part provided on a lower portion between the outer circumferential part and the inner circumferential part , and the supply part is formed on the outer circumferential part , the discharge part is formed on the inner circumferential part , and the wind passage is provided between the outer circumferential part and the inner circumferential part .
Radar sensor , comprising a combined circuit with radar and communication capabilities, configured to assume a radar mode, in which radar signals are emitted and received, and a communication mode, in which communication signals are emitted and received, the combined circuit comprising: a transmit path comprising a first oscillator with a first tuning input configured to generate a transmit signal, and a transmit antenna , configured to transmit the transmit signal towards an object ; a receive path comprising a receive antenna , configured to receive the transmit signal after it has been reflected by the object, and a second oscillator with a second tuning input ; a coupling , configured to electromagnetically couple the first oscillator with the second oscillator, when the radar sensor is in radar mode and a difference in a tuning voltage at the first tuning input and the second tuning input does not exceed a predefined threshold, such that the first oscillator and the second oscillator oscillate at the same frequency; wherein the coupling is further configured to electromagnetically decouple the first oscillator from the second oscillator , when the radar sensor is in communication mode and the difference in the tuning voltage at the first tuning input and the second tuning input exceeds the predefined threshold, such that the first oscillator and the second oscillator do not oscillate at the same frequency. a transmit path comprising a first oscillator with a first tuning input configured to generate a transmit signal, and a transmit antenna , configured to transmit the transmit signal towards an object ; a receive path comprising a receive antenna , configured to receive the transmit signal after it has been reflected by the object, and a second oscillator with a second tuning input ; a coupling , configured to electromagnetically couple the first oscillator with the second oscillator, when the radar sensor is in radar mode and a difference in a tuning voltage at the first tuning input and the second tuning input does not exceed a predefined threshold, such that the first oscillator and the second oscillator oscillate at the same frequency; wherein the coupling is further configured to electromagnetically decouple the first oscillator from the second oscillator , when the radar sensor is in communication mode and the difference in the tuning voltage at the first tuning input and the second tuning input exceeds the predefined threshold, such that the first oscillator and the second oscillator do not oscillate at the same frequency.
A computer-implemented method for determining a position and orientation of at least one camera of a camera assembly comprising a plurality of cameras directed to respective imaging directions, using another camera of the camera assembly , wherein the relative position and orientation between each of the cameras is known, the method comprising the procedures of: capturing at least one image of a scene with a first camera of the camera assembly , and determining the 3D position and orientation coordinates of the first camera by georegistering the captured image to a 3D geographic model; determining 3D position and orientation coordinates of at least a second camera of the camera assembly , based on the determined global position and orientation of the first camera , and the relative position and orientation of the second camera relative to the first camera . capturing at least one image of a scene with a first camera of the camera assembly , and determining the 3D position and orientation coordinates of the first camera by georegistering the captured image to a 3D geographic model; determining 3D position and orientation coordinates of at least a second camera of the camera assembly , based on the determined global position and orientation of the first camera , and the relative position and orientation of the second camera relative to the first camera .