mhurhangee/patent-ind-claim-en huggingface dataset:
An endoscope , comprising: a shaft having a longitudinal axis (A), a first image sensor facing a distal direction, and a second image sensor facing a lateral direction; and a tubular member having a lumen , the lumen having a distal-end opening and defining a longitudinal axis (B) through a center of the lumen , the tubular member being movable between a first configuration, a second and a third configuration; wherein in the first configuration of the tubular member , the longitudinal axis of the lumen is parallel to the longitudinal axis of the shaft; and wherein in the second configuration of the tubular member , a distal portion of the tubular member is bent so that the longitudinal axis (B) of the lumen in the distal portion extends laterally through a lateral opening in a wall of the shaft, wherein in the third configuration of the tubular member , a medical device positioned within the tubular member is locked relative to the wall of the shaft a shaft having a longitudinal axis (A), a first image sensor facing a distal direction, and a second image sensor facing a lateral direction; and a tubular member having a lumen , the lumen having a distal-end opening and defining a longitudinal axis (B) through a center of the lumen , the tubular member being movable between a first configuration, a second and a third configuration; wherein in the first configuration of the tubular member , the longitudinal axis of the lumen is parallel to the longitudinal axis of the shaft; and wherein in the second configuration of the tubular member , a distal portion of the tubular member is bent so that the longitudinal axis (B) of the lumen in the distal portion extends laterally through a lateral opening in a wall of the shaft, wherein in the third configuration of the tubular member , a medical device positioned within the tubular member is locked relative to the wall of the shaft
A dynamic sleeve seal fitting , comprising: a first sleeve having a tongue portion ; a second sleeve having a groove configured to receive the tongue portion ; a first seal member coupled to at least one of the tongue portion or the groove and configured to generate a seal between the first sleeve and the second sleeve in response to inserting the tongue portion into the groove ; and a second seal member coupled to at least one of the tongue portion or the groove , wherein the first seal member is configured to seal between a radially inner surface of the groove and the tongue portion and wherein the second seal member is configured to seal between a radially outer surface of the groove and the tongue portion , characterised in that the dynamic sleeve seal fitting further comprises a third seal member (250; 450) and a fourth seal member each configured to generate a seal between the first sleeve and the second sleeve in response to a thermal expansion of the first sleeve and the second sleeve . a first sleeve having a tongue portion ; a second sleeve having a groove configured to receive the tongue portion ; a first seal member coupled to at least one of the tongue portion or the groove and configured to generate a seal between the first sleeve and the second sleeve in response to inserting the tongue portion into the groove ; and a second seal member coupled to at least one of the tongue portion or the groove , wherein the first seal member is configured to seal between a radially inner surface of the groove and the tongue portion and wherein the second seal member is configured to seal between a radially outer surface of the groove and the tongue portion , characterised in that the dynamic sleeve seal fitting further comprises a third seal member (250; 450) and a fourth seal member each configured to generate a seal between the first sleeve and the second sleeve in response to a thermal expansion of the first sleeve and the second sleeve .
An apparatus for attachment to a cardiac pump, the apparatus comprising: an adaptor (108; 200; 300; 400; 500; 600; 708) comprising: an annular cross section configured to receive the cardiac pump, wherein the annular cross section is secured to the cardiac pump; and a plurality of channels (202; 310; 410; 508; 608) arranged around the adaptor (108; 200; 300; 400; 500; 600; 708); a cannula (104; 1200) comprising a proximal portion , a distal portion (116; 1208) , and an intermediate portion comprising a braided mesh extending between the distal portion and the proximal portion , the proximal portion having a proximal end comprising a plurality of elements arranged through the channels and the distal portion comprising a plurality of wires and a tip element , wherein the plurality of wires extend in a distal direction from the braided mesh to the tip element , wherein the plurality of wires are secured to the tip element ; and a coating covering at least a portion of the braided mesh. an adaptor (108; 200; 300; 400; 500; 600; 708) comprising: an annular cross section configured to receive the cardiac pump, wherein the annular cross section is secured to the cardiac pump; and a plurality of channels (202; 310; 410; 508; 608) arranged around the adaptor (108; 200; 300; 400; 500; 600; 708); an annular cross section configured to receive the cardiac pump, wherein the annular cross section is secured to the cardiac pump; and a plurality of channels (202; 310; 410; 508; 608) arranged around the adaptor (108; 200; 300; 400; 500; 600; 708); a cannula (104; 1200) comprising a proximal portion , a distal portion (116; 1208) , and an intermediate portion comprising a braided mesh extending between the distal portion and the proximal portion , the proximal portion having a proximal end comprising a plurality of elements arranged through the channels and the distal portion comprising a plurality of wires and a tip element , wherein the plurality of wires extend in a distal direction from the braided mesh to the tip element , wherein the plurality of wires are secured to the tip element ; and a coating covering at least a portion of the braided mesh.
A panel having a panel top side and a panel underside and at least two mutually opposite panel edges , which respectively have an edge break designed as a bevel at the panel top side , wherein the edge breaks in turn in the connected condition together form a join in a covering surface whereat the edge break of one of the panel edges , is larger than the edge break of the opposite panel edge and that a lower part of the large edge break of the one panel edge in the connected condition is overlapped by the small edge break of the opposite panel edge characterised in that a projection is provided on that panel edge with the large edge break , which projection has a rounded cross-section at the free end, in that the complementary panel edge has a recess which is provided with a matching round configuration, so that the projection nestles against the cross-section of the recess, and that in the assembled state the edges of the panels can be centred relative to one another by means of the projection and the recess and a locking can be effected to prevent the panels from moving apart in a direction perpendicular to the plane of the panel.
An intake air-flow rate detecting apparatus of an internal combustion engine , comprising: a thermal air-flow sensor for detecting an intake air-flow rate (KLFWD) of the internal combustion engine ; and response lag compensating means for compensating for a response lag of said air-flow sensor using a first-order lag element based on heat release of said air-flow sensor , wherein said response lag compensating means is adapted to determine a time constant (τ) based on a flow amount of the intake air-flow rate detected by said air-flow sensor , characterized in that said response lag compensating means is adapted to compensate for the response lag of the heat release amount in said air-flow sensor by using the time constant (τ) and is adapted to calculate the intake air-flow rate based on the heat release amount after compensating for the response lag, wherein the response lag is processed based on the heat release amount of a detector part of said air-flow sensor . a thermal air-flow sensor for detecting an intake air-flow rate (KLFWD) of the internal combustion engine ; and response lag compensating means for compensating for a response lag of said air-flow sensor using a first-order lag element based on heat release of said air-flow sensor , wherein said response lag compensating means is adapted to determine a time constant (τ) based on a flow amount of the intake air-flow rate detected by said air-flow sensor , characterized in that said response lag compensating means is adapted to compensate for the response lag of the heat release amount in said air-flow sensor by using the time constant (τ) and is adapted to calculate the intake air-flow rate based on the heat release amount after compensating for the response lag, wherein the response lag is processed based on the heat release amount of a detector part of said air-flow sensor .
Bevacizumab for use in a treatment of a brain tumor, the treatment comprising the following steps: administering Bevacizumab to a subject; wherein said Bevacizumab is of an amount of 0.011 to 11 mg/kg body weight for a human; administering an ultrasound-response medium to said subject; and administering said subject with an ultrasound exposure of 0.47 to 1.26 mechanical index (MI), wherein said ultrasound-response medium is a plurality of particles; and wherein said ultrasound exposure is administered on a central nervous system of said subject. administering Bevacizumab to a subject; wherein said Bevacizumab is of an amount of 0.011 to 11 mg/kg body weight for a human; administering an ultrasound-response medium to said subject; and administering said subject with an ultrasound exposure of 0.47 to 1.26 mechanical index (MI), wherein said ultrasound-response medium is a plurality of particles; and wherein said ultrasound exposure is administered on a central nervous system of said subject.
A system for scheduling the execution of tasks, the system comprising: at least one processing unit configured to execute a plurality of tasks (P, τ), the system further characterized in that : each task in the plurality of tasks is scheduled to execute within a scheduler instance in a plurality of scheduler instances (210 to 217, 231 to 236), each scheduler instance in the plurality of scheduler instances being associated with a set of time windows in a plurality of time windows (221 to 228, 302, 312) and with a set of processing units in the at least one processing unit in each time window, one or more time windows in the plurality of time windows having a start time and an allotted duration and the scheduler instance associated with the one or more time windows begins executing one or more tasks no earlier than the start time and executes for no longer than the allotted duration, and wherein the start time of the one or more time windows is slidable to earlier moments in time. each task in the plurality of tasks is scheduled to execute within a scheduler instance in a plurality of scheduler instances (210 to 217, 231 to 236), each scheduler instance in the plurality of scheduler instances being associated with a set of time windows in a plurality of time windows (221 to 228, 302, 312) and with a set of processing units in the at least one processing unit in each time window, one or more time windows in the plurality of time windows having a start time and an allotted duration and the scheduler instance associated with the one or more time windows begins executing one or more tasks no earlier than the start time and executes for no longer than the allotted duration, and wherein the start time of the one or more time windows is slidable to earlier moments in time.
A piezoresistive pressure sensor comprising a rigid flat support , a flat flexible membrane having a flat external face exposed to a pressure of a fluid and a flat internal face delimiting in cooperation with a flat internal face of said support a chamber accommodating a deformation of said membrane , an electrical measuring circuit comprising a resistive Wheatstone bridge applied on the flat internal plane of said membrane for detecting the deformation of said membrane and comprising four primary resistors (R1, R2, R3 and R4), two supply terminals (V + , V - ) of said resistive bridge , two measuring terminals (0 + , 0 - ) of an output signal of said resistive bridge , and at least an electrical resistor (Rc) applied on said flat internal face of said membrane for compensating a value of said output signal when said fluid is at a reference pressure, characterised in that said electrical measuring circuit comprises a bypass formed by an electrically conductive track and in that said calibration resistor (Rc) is formed by a series of compartments selectively excludable due to discrete variation of the calibration resistance value supplied, a series of electrically conductive compartmentalisation tracks being provided which tracks transversally intersect said calibration resistor (Rc) at a progressively growing distance from an end thereof and project transversally beyond said calibration resistor (Rc) up to intersecting said bypass , the first track of said series extending to a first of said primary resistors (R1) of a first branch of said resistive Wheatstone bridge and the last track of said series extending to a second of said primary resistors (R2) of a second branch of said resistive Wheatstone bridge , said calibration resistor (Rc) being designed to be adapted to quantify the value of the resistance of both branches of the resistive bridge by provision of one or more cuts to said bypass to exclude one or more compartments of said calibration resistor (Rc) .
Acoustic cap for sound proofing and/or damping of a noise source in a vehicle, wherein the acoustic cap comprises: - a shell as a first proofing and/or damping material and as an outer wall of the acoustic cap , wherein the shell is made of plastic; and - a second proofing and/or damping material as an inner, noise source facing wall of the acoustic cap , wherein one or multiple hollow spaces is or are defined between the first and the second proofing and/or damping material , characterized in that the shell encloses a half space substantially, preferably completely, or an air channel, by means of its wall or walls, wherein the second proofing and/or damping material entirely follows a contour of the wall or the walls of the shell with a spacing and is accommodated entirely in the half space or air channel. - a shell as a first proofing and/or damping material and as an outer wall of the acoustic cap , wherein the shell is made of plastic; and - a second proofing and/or damping material as an inner, noise source facing wall of the acoustic cap , wherein one or multiple hollow spaces is or are defined between the first and the second proofing and/or damping material , characterized in that the shell encloses a half space substantially, preferably completely, or an air channel, by means of its wall or walls, wherein the second proofing and/or damping material entirely follows a contour of the wall or the walls of the shell with a spacing and is accommodated entirely in the half space or air channel.
A glass-based material comprising a glass phase and a crystalline ceramic phase dispersed within the glass phase, the glass-based material having a transmission of at least 88%/mm over a visible spectrum ranging from 400 nm to 700 nm, a fracture toughness of at least 0.9 MPa·m 1/2 ; wherein the volume fraction of the crystalline ceramic phase in the glass-based material is in a range from 10% to 98%; wherein the crystalline phase comprises crystallites having a major dimension of less than 100 nm, as determined from x-ray diffraction/Rietveld analysis; and wherein a difference in refractive index between the glass phase and the crystalline ceramic phase is less than or equal to 0.5. wherein the volume fraction of the crystalline ceramic phase in the glass-based material is in a range from 10% to 98%; wherein the crystalline phase comprises crystallites having a major dimension of less than 100 nm, as determined from x-ray diffraction/Rietveld analysis; and wherein a difference in refractive index between the glass phase and the crystalline ceramic phase is less than or equal to 0.5.
Autonomously guided industrial truck having a length direction (L) and a width direction (B), comprising: - a vehicle body comprising at least one steered drive wheel; and - a load part (10; 200) that is arranged so as to be vertically displaceable, comprising: o a pair of fork arms which extend substantially horizontally and are arranged side-by-side in the width direction (B); or o a monofork which extends substantially horizontally and comprises two extension portions and a connecting portion , and o a load stop (14; 214) which is connected to the pair of fork arms or the two extension portions and extends substantially in the vertical direction above the fork arms or the monofork , the load stop (14; 214) having a cutout (22a, 22b; 222a, 222b) neighbouring the corresponding fork arm or extension portion , on at least one of its outer sides, in the width direction (B), characterised in that it comprises a scanner unit on at least one side and preferably in a symmetrical arrangement on both sides in the width direction (B), which scanner unit has a substantially horizontally oriented scanning plane (E), in a fully lowered state of the load part (10; 200) the at least one cutout thereof being located at the vertical height of the scanning plane (E). - a vehicle body comprising at least one steered drive wheel; and - a load part (10; 200) that is arranged so as to be vertically displaceable, comprising: o a pair of fork arms which extend substantially horizontally and are arranged side-by-side in the width direction (B); or o a monofork which extends substantially horizontally and comprises two extension portions and a connecting portion , and o a load stop (14; 214) which is connected to the pair of fork arms or the two extension portions and extends substantially in the vertical direction above the fork arms or the monofork , the load stop (14; 214) having a cutout (22a, 22b; 222a, 222b) neighbouring the corresponding fork arm or extension portion , on at least one of its outer sides, in the width direction (B), o a pair of fork arms which extend substantially horizontally and are arranged side-by-side in the width direction (B); or o a monofork which extends substantially horizontally and comprises two extension portions and a connecting portion , and o a load stop (14; 214) which is connected to the pair of fork arms or the two extension portions and extends substantially in the vertical direction above the fork arms or the monofork ,
An optoelectronic device (10; 80; 90; 100; 105; 110; 115; 120; 130) comprising: a first circuit comprising a substrate comprising first and second opposite faces , the first circuit comprising display pixels (Pix), each display pixel comprising, on the side of the first face, a first light-emitting diode comprising a first active region adapted to emit a first radiation at a first wavelength in the range from 600 nm to 720 nm and, extending from the second face, a second light-emitting diode (18, 20; 92, 94; 116, 118) comprising a second active region adapted to emit a second radiation, the surface area, viewed from a direction orthogonal to the first face, of the first active region being at least twice as big as the surface area, viewed from said direction, of the second active region; and a second circuit bonded to the first circuit on the side of the first light-emitting diode and electrically linked to the first and second light-emitting diodes. a first circuit comprising a substrate comprising first and second opposite faces , the first circuit comprising display pixels (Pix), each display pixel comprising, on the side of the first face, a first light-emitting diode comprising a first active region adapted to emit a first radiation at a first wavelength in the range from 600 nm to 720 nm and, extending from the second face, a second light-emitting diode (18, 20; 92, 94; 116, 118) comprising a second active region adapted to emit a second radiation, the surface area, viewed from a direction orthogonal to the first face, of the first active region being at least twice as big as the surface area, viewed from said direction, of the second active region; and a second circuit bonded to the first circuit on the side of the first light-emitting diode and electrically linked to the first and second light-emitting diodes.
A dust collecting device comprising: a dust collecting case having a dust discharging port openable to discharge the collected dust; a discharge cover coupled to one side of the dust collecting case to open and close the dust discharging port ; and a sealing member provided to extend from an inner surface of the dust collecting case to a coupling surface of the dust collecting case while being in contact with the dust collecting case and thus to be sealed when the dust discharging port is closed, wherein the sealing member comprises a sealing portion provided to be in surface contact with the inner surface and the coupling surface ; and a connection portion connected to the sealing portion and to vary a position of the sealing portion, wherein the sealing portion comprises: a first sealing portion configured to extend from the connection portion and provided to be in contact with an inner surface of the dust collecting case and thus to be sealed; and a second sealing portion configured to extend from one side of the first sealing portion and provided to be in contact with the coupling surface and thus to be sealed. a dust collecting case having a dust discharging port openable to discharge the collected dust; a discharge cover coupled to one side of the dust collecting case to open and close the dust discharging port ; and a sealing member provided to extend from an inner surface of the dust collecting case to a coupling surface of the dust collecting case while being in contact with the dust collecting case and thus to be sealed when the dust discharging port is closed, wherein the sealing member comprises a sealing portion provided to be in surface contact with the inner surface and the coupling surface ; and a connection portion connected to the sealing portion and to vary a position of the sealing portion, wherein the sealing portion comprises: a first sealing portion configured to extend from the connection portion and provided to be in contact with an inner surface of the dust collecting case and thus to be sealed; and a second sealing portion configured to extend from one side of the first sealing portion and provided to be in contact with the coupling surface and thus to be sealed. a first sealing portion configured to extend from the connection portion and provided to be in contact with an inner surface of the dust collecting case and thus to be sealed; and a second sealing portion configured to extend from one side of the first sealing portion and provided to be in contact with the coupling surface and thus to be sealed.