mhurhangee/patent-ind-claim-en huggingface dataset:
A pallet supply apparatus comprising: a pallet storage device having: a plurality of holding units holding pallets (P); and a frame supporting the plurality of holding units in a row; a conveyance device having: a traveling base arranged parallel to the pallet storage device and having a traveling path extending along the pallet storage device ; and a conveyance unit traveling on the traveling path to load and unload the pallets (P) into and from the holding units and to convey the pallets (P) to and from a predetermined place; and a controller controlling operation of the conveyance device , characterized in that : the frame has under the holding units a space capable of receiving the controller therein and has a cover of a plate shape arranged such that the cover is located above the controller with the controller received in the space and is inclined downward toward the traveling base side; the cover is supported by the frame such that a lower end side of the cover can be flipped up; and the cover is configured such that the controller can pass under the cover when the lower end side of the cover is in a flipped-up state. a pallet storage device having: a plurality of holding units holding pallets (P); and a frame supporting the plurality of holding units in a row; a conveyance device having: a traveling base arranged parallel to the pallet storage device and having a traveling path extending along the pallet storage device ; and a conveyance unit traveling on the traveling path to load and unload the pallets (P) into and from the holding units and to convey the pallets (P) to and from a predetermined place; and a controller controlling operation of the conveyance device , characterized in that : the frame has under the holding units a space capable of receiving the controller therein and has a cover of a plate shape arranged such that the cover is located above the controller with the controller received in the space and is inclined downward toward the traveling base side; the cover is supported by the frame such that a lower end side of the cover can be flipped up; and the cover is configured such that the controller can pass under the cover when the lower end side of the cover is in a flipped-up state. the frame has under the holding units a space capable of receiving the controller therein and has a cover of a plate shape arranged such that the cover is located above the controller with the controller received in the space and is inclined downward toward the traveling base side; the cover is supported by the frame such that a lower end side of the cover can be flipped up; and the cover is configured such that the controller can pass under the cover when the lower end side of the cover is in a flipped-up state.
An apparatus comprising headphones configured to operate in a first mode and a second mode and comprising means for: determining, relative to one or more real audio sources in an environment , a relative position of a virtual object in the environment; determining, based on the relative position, an occluded region of the environment in which audio signals from the one or more real audio sources would be occluded by the virtual object; receiving audio signals from the one or more real audio sources; switching the headphones between the first mode and the second mode based on a location of a user in the environment relative to the occluded region, wherein when the location of the user is determined to be in the occluded region, the headphones operate in the second mode, wherein the second mode is a closed mode in which audio data is generated by processing the received audio signals to at least partially remove those audio signals which would be occluded by the virtual object, and in which the audio data is output to the user, and wherein when the location of the user is determined to be outside the occluded region, the headphones operate in the first mode, wherein the first mode is an open mode in which the audio signals from the one or more real audio sources are received at the user ears with no processing performed on the received audio signals by the headphones and audio data associated with the one or more real audio sources is not output by the headphones determining, relative to one or more real audio sources in an environment , a relative position of a virtual object in the environment; determining, based on the relative position, an occluded region of the environment in which audio signals from the one or more real audio sources would be occluded by the virtual object; receiving audio signals from the one or more real audio sources; switching the headphones between the first mode and the second mode based on a location of a user in the environment relative to the occluded region, wherein when the location of the user is determined to be in the occluded region, the headphones operate in the second mode, wherein the second mode is a closed mode in which audio data is generated by processing the received audio signals to at least partially remove those audio signals which would be occluded by the virtual object, and in which the audio data is output to the user, and wherein when the location of the user is determined to be outside the occluded region, the headphones operate in the first mode, wherein the first mode is an open mode in which the audio signals from the one or more real audio sources are received at the user ears with no processing performed on the received audio signals by the headphones and audio data associated with the one or more real audio sources is not output by the headphones
A radially expanding fastener/alignment plug assembly for use with a torque power tool, the assembly comprising: a sleeve member , insertable into a hole of an object, having radial expansion elements with inner surface portions which are tapered towards a first end ; an expanding member , insertable in the sleeve member , having an outer surface portion which is tapered towards a first end , cooperating with the inner tapered surface portions of the radial expansion elements of the sleeve member ; and a displacement member formed between a second end of the sleeve member and a second end of the expanding member , a top surface of the displacement member being positioned flush with a top surface of the expansion sleeve member , wherein the displacement member is configured for axial displacement of the expanding member which expands the radial expansion elements of the sleeve member , the sleeve member having upper rotational coupling formations at the second end for receiving a reaction torque from the torque power tool; and the displacement member or the expanding member having upper rotational coupling formations at the second end for receiving an action torque from the torque power tool. a sleeve member , insertable into a hole of an object, having radial expansion elements with inner surface portions which are tapered towards a first end ; an expanding member , insertable in the sleeve member , having an outer surface portion which is tapered towards a first end , cooperating with the inner tapered surface portions of the radial expansion elements of the sleeve member ; and a displacement member formed between a second end of the sleeve member and a second end of the expanding member , a top surface of the displacement member being positioned flush with a top surface of the expansion sleeve member , wherein the displacement member is configured for axial displacement of the expanding member which expands the radial expansion elements of the sleeve member , the sleeve member having upper rotational coupling formations at the second end for receiving a reaction torque from the torque power tool; and the displacement member or the expanding member having upper rotational coupling formations at the second end for receiving an action torque from the torque power tool.
A method for diagnosing engine and exhaust aftertreatment system health, the exhaust aftertreatment system comprising a diesel particulate filter (DPF, 27), the method comprising: measuring a pressure drop (ΔP) across the DPF and using the measured pressure drop (ΔP) to calculate a pressure drop based soot load estimate (SLp); calculating soot output from an engine model and using the calculated soot output to calculate an emissions based soot load estimate (SLc); characterized in that the method further comprises: comparing said pressure drop based soot load estimate (SLp) with said emissions based soot load estimate (SLc) when one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) reaches a predetermined soot load limit (SLlim); and if a difference in time between a time at which one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) reaches the predetermined soot load limit (SLlim) and a time at which the other one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) is expected to reach the predetermined soot load limit (SLlim) exceeds a predetermined time period, providing a warning of abnormally frequent DPF regeneration,. measuring a pressure drop (ΔP) across the DPF and using the measured pressure drop (ΔP) to calculate a pressure drop based soot load estimate (SLp); calculating soot output from an engine model and using the calculated soot output to calculate an emissions based soot load estimate (SLc); characterized in that the method further comprises: comparing said pressure drop based soot load estimate (SLp) with said emissions based soot load estimate (SLc) when one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) reaches a predetermined soot load limit (SLlim); and if a difference in time between a time at which one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) reaches the predetermined soot load limit (SLlim) and a time at which the other one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) is expected to reach the predetermined soot load limit (SLlim) exceeds a predetermined time period, providing a warning of abnormally frequent DPF regeneration,. comparing said pressure drop based soot load estimate (SLp) with said emissions based soot load estimate (SLc) when one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) reaches a predetermined soot load limit (SLlim); and if a difference in time between a time at which one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) reaches the predetermined soot load limit (SLlim) and a time at which the other one of the pressure drop based soot load estimate (SLp) and the emissions based soot load estimate (SLc) is expected to reach the predetermined soot load limit (SLlim) exceeds a predetermined time period, providing a warning of abnormally frequent DPF regeneration,.
A securement device for securing a catheter connector to a patient, wherein the connector has a body with a proximal end having a port configured thereon for communication with a fluid delivery device, and a distal end with a passage defined therein axially aligned with the port and having a size for receipt of a catheter inserted therein, said securement device comprising: a lower shell member ; said lower shell member having a perimeter wall defining a cradle space for receipt of the connector body such that said perimeter wall circumferentially engages around the connector body ; said perimeter wall having a proximal end with a groove defined therein for passage of the connector port axially beyond said perimeter wall through said groove ; said perimeter wall having a distal end configured to completely encircle the distal end of the connector body , said distal end of said perimeter wall having a slot defined therein that axially aligns with the passage in the connector so that a catheter inserted in the passage resides in said slot to pass through said perimeter wall ; and a cover member hinged to said lower shell member at a hinge line and movable from an open position for insertion and removal of the connector to a closed position wherein said cover member releasably latches to said lower shell member to retain the connector within said lower shell member ; wherein said cradle space defined by said perimeter wall matches a shape of the connector body so that said perimeter wall continuously engages the connector body when the connector is seated within said cradle space . a lower shell member ; said lower shell member having a perimeter wall defining a cradle space for receipt of the connector body such that said perimeter wall circumferentially engages around the connector body ; said perimeter wall having a proximal end with a groove defined therein for passage of the connector port axially beyond said perimeter wall through said groove ; said perimeter wall having a distal end configured to completely encircle the distal end of the connector body , said distal end of said perimeter wall having a slot defined therein that axially aligns with the passage in the connector so that a catheter inserted in the passage resides in said slot to pass through said perimeter wall ; and a cover member hinged to said lower shell member at a hinge line and movable from an open position for insertion and removal of the connector to a closed position wherein said cover member releasably latches to said lower shell member to retain the connector within said lower shell member ; wherein said cradle space defined by said perimeter wall matches a shape of the connector body so that said perimeter wall continuously engages the connector body when the connector is seated within said cradle space .
A compound based on 1-Aza-3,7-dioxabicyclo[3.3.0]octane substituted with 3-(4-isobutyl-2-methylphenyl)propyl represented by formula (I) wherein R a is hydrogen or a C 1-20 alkyl which can be optionally substituted with hydroxyl groups and/or amine groups and/or in which up to 8 -CH 2 - groups which are not adjacent to each other can be substituted by -O-, preferably R a is hydrogen or C 1-6 alkyl, more preferably R a is hydrogen or methyl, most preferably R a is hydrogen; and R b and R c are independently selected from hydrogen or C 1-6 alkyl, preferably R b and R c are independently selected from hydrogen and methyl, more preferably R b and R c are both hydrogen. R a is hydrogen or a C 1-20 alkyl which can be optionally substituted with hydroxyl groups and/or amine groups and/or in which up to 8 -CH 2 - groups which are not adjacent to each other can be substituted by -O-, preferably R a is hydrogen or C 1-6 alkyl, more preferably R a is hydrogen or methyl, most preferably R a is hydrogen; and R b and R c are independently selected from hydrogen or C 1-6 alkyl, preferably R b and R c are independently selected from hydrogen and methyl, more preferably R b and R c are both hydrogen.
A LED controller for an LED pixel array , comprising: - an image buffer to hold image data; and - a pixel control circuit including logic providing a row and column select signal for each pixel of the LED pixel array (230 430); characterized by the LED controller further comprising a command control module for receiving a forward voltage on a forward voltage bus (Vf); and the pixel control circuit comprising - a pulse width modulator having a duty cycle determined by the image data; - a select switch (K1), activated in response to the row and column select signal; - a PWM switch (K2), activated in response to the pulse width modulation duty cycle; and - a current source switch (K3) providing a current source from a voltage bias line (V BIAS ); and wherein pixel activation is determined at least in part by the switch state of the select switch (K1) and the switch state of the PWM switch (K2); and wherein an LED pixel in the LED pixel array is selected by the select switch (K1); and a fault determination for the LED pixel is made based on the forward voltage determined on the forward voltage bus (V f ) shared by all LED pixels in the LED pixel array . - an image buffer to hold image data; and - a pixel control circuit including logic providing a row and column select signal for each pixel of the LED pixel array (230 430); the LED controller further comprising a command control module for receiving a forward voltage on a forward voltage bus (Vf); and the pixel control circuit comprising - a pulse width modulator having a duty cycle determined by the image data; - a select switch (K1), activated in response to the row and column select signal; - a PWM switch (K2), activated in response to the pulse width modulation duty cycle; and - a current source switch (K3) providing a current source from a voltage bias line (V BIAS ); and wherein - a pulse width modulator having a duty cycle determined by the image data; - a select switch (K1), activated in response to the row and column select signal; - a PWM switch (K2), activated in response to the pulse width modulation duty cycle; and - a current source switch (K3) providing a current source from a voltage bias line (V BIAS ); and wherein pixel activation is determined at least in part by the switch state of the select switch (K1) and the switch state of the PWM switch (K2); and wherein an LED pixel in the LED pixel array is selected by the select switch (K1); and a fault determination for the LED pixel is made based on the forward voltage determined on the forward voltage bus (V f ) shared by all LED pixels in the LED pixel array .
Iterative method of stacking fibre plies for producing a reinforcing preform of a composite wall , the method comprising a step of: (a) adding a fibre ply onto a preceding ply or onto a stacking template , the added fibre ply having reference markings (40; 44; 48) distributed over its surface, including at least a first reference marking and a second reference marking ; characterized in that the method further comprises the steps of: (b) projecting at least two illuminated marks (42; 46; 38) onto the added ply, including a first mark and a second mark , the marks (42; 46; 38) being adapted to trace on the ply the predetermined positions that the corresponding reference markings (40; 44; 48) are to occupy in the preform ; (c) moving the added ply relative to the illuminated marks (42; 46; 38) so that the first reference marking coincides with the first corresponding mark ; (d) adjusting (116; 118) the added ply so that the second reference marking coincides with the second corresponding mark ; the preceding steps being repeated so as to form a stack of fibre plies forming the preform . (a) adding a fibre ply onto a preceding ply or onto a stacking template , (b) projecting at least two illuminated marks (42; 46; 38) onto the added ply, including a first mark and a second mark , the marks (42; 46; 38) being adapted to trace on the ply the predetermined positions that the corresponding reference markings (40; 44; 48) are to occupy in the preform ; (c) moving the added ply relative to the illuminated marks (42; 46; 38) so that the first reference marking coincides with the first corresponding mark ; (d) adjusting (116; 118) the added ply so that the second reference marking coincides with the second corresponding mark ;
A tissue-removing catheter for removing tissue from a body lumen having a longitudinal axis, the tissue-removing catheter comprising: a catheter body configured for insertion in the body lumen, the catheter body having a proximal end , a distal end , and a longitudinal axis extending between the proximal and distal ends , wherein at least a first longitudinal body portion of the catheter body is rotatable about a rotational axis extending along the length of the catheter body ; a tissue-removing element coupled to the first longitudinal portion of the catheter body ; and an angular-displacement sensor coupled to the catheter body and configured to detect an angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the first longitudinal body portion is rotated about the rotational axis, characterised in that the angular-displacement sensor is configured to generate an electrical signal indicative of the angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the tissue-removing element is rotated about the rotational axis. a catheter body configured for insertion in the body lumen, the catheter body having a proximal end , a distal end , and a longitudinal axis extending between the proximal and distal ends , wherein at least a first longitudinal body portion of the catheter body is rotatable about a rotational axis extending along the length of the catheter body ; a tissue-removing element coupled to the first longitudinal portion of the catheter body ; and an angular-displacement sensor coupled to the catheter body and configured to detect an angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the first longitudinal body portion is rotated about the rotational axis, characterised in that the angular-displacement sensor is configured to generate an electrical signal indicative of the angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the tissue-removing element is rotated about the rotational axis.
Connecting arrangement for fastening a cladding part to a vehicle , in particular a rail vehicle , - with a vehicle , - with a carrier which forms a first component and is a part of the vehicle , - with the cladding part which forms a second component , - with a buffer element which extends along a buffer element longitudinal axis and is connected to one of the components , and - with an attachment element which extends along an attachment element longitudinal axis (L2) and is connected to the other of the components , - the attachment element being fitted onto the buffer element , characterized, in that the buffer element and the attachment element are arranged between the cladding part and the carrier , and the connection between the buffer element and the attachment element is flexible, and in that the buffer element has a bolt (5.1) having a bolt head (5.11) and a bolt shaft (5.12) and a head (5.2) connected to the bolt (5.1) and having a first end (5.21) facing the bolt (5.1) and a second end (5.22) facing away from the bolt (5.1), the material of the head (5.2) having a higher elasticity than the material of the carrier and of the attachment element . - with a vehicle , - with a carrier which forms a first component and is a part of the vehicle , - with the cladding part which forms a second component , - with a buffer element which extends along a buffer element longitudinal axis and is connected to one of the components , and - with an attachment element which extends along an attachment element longitudinal axis (L2) and is connected to the other of the components , - the attachment element being fitted onto the buffer element ,