mhurhangee/ep-ind-claims huggingface dataset:
A system for providing respiratory therapy to a patient, comprising: a nebulizer (100, 300) having a nebulizer outlet port (112, 312), the nebulizer operable to generate an aerosolized medicament and pass the aerosolized medicament through the nebulizer outlet port; an adaptor (130, 330) having an adaptor body (132, 332), a nebulizer coupling port (134, 334), and an adaptor outlet port (136, 336), the nebulizer coupling port of the adaptor configured to be coupled to the nebulizer outlet port of the nebulizer; and a nasal cannula (150, 350) configured to provide a flow of breathing gas from a breathing gas source to the patient, the nasal cannula comprising: a cannula body with at least one nasal prong (158, 160) and an attachment device positioned adjacent the at least one nasal prong, the attachment device configured to secure the adaptor outlet port adjacent an outlet of the at least one nasal prong; and a supply tube (152, 154) for enabling fluid communication between the cannula body and a breathing gas source, wherein the attachment device is configured to position the adaptor outlet port (136, 336) directly below a nare of the patient when the nasal cannula (150, 336) is secured to the patient. a nebulizer (100, 300) having a nebulizer outlet port (112, 312), the nebulizer operable to generate an aerosolized medicament and pass the aerosolized medicament through the nebulizer outlet port; an adaptor (130, 330) having an adaptor body (132, 332), a nebulizer coupling port (134, 334), and an adaptor outlet port (136, 336), the nebulizer coupling port of the adaptor configured to be coupled to the nebulizer outlet port of the nebulizer; and a nasal cannula (150, 350) configured to provide a flow of breathing gas from a breathing gas source to the patient, the nasal cannula comprising: a cannula body with at least one nasal prong (158, 160) and an attachment device positioned adjacent the at least one nasal prong, the attachment device configured to secure the adaptor outlet port adjacent an outlet of the at least one nasal prong; and a supply tube (152, 154) for enabling fluid communication between the cannula body and a breathing gas source, a cannula body with at least one nasal prong (158, 160) and an attachment device positioned adjacent the at least one nasal prong, the attachment device configured to secure the adaptor outlet port adjacent an outlet of the at least one nasal prong; and a supply tube (152, 154) for enabling fluid communication between the cannula body and a breathing gas source, wherein the attachment device is configured to position the adaptor outlet port (136, 336) directly below a nare of the patient when the nasal cannula (150, 336) is secured to the patient.
A finger alignment device (800; 900) for finger positioning of a little finger and little fingertip, ring finger and ring fingertip, and middle finger and middle fingertip, the device comprising: a little finger portion (887; 987) comprising a first bent little finger alignment guide that contours the bending of a little finger at a first knuckle, a second knuckle, and a third knuckle; a ring finger portion (886; 986) comprising a first bent ring finger alignment guide that contours the bending of a ring finger at a first knuckle, a second knuckle, and a third knuckle; and a middle finger portion (885; 985) comprising a first middle finger alignment guide; characterised in that the device is a finger alignment training device (800; 900) for teaching proper finger positioning while performing a cosmetic sugaring hair removal procedure, and in that the bent little finger alignment guide, the bent ring finger alignment guide, and the middle finger alignment guide are configured to position the little fingertip, the ring fingertip, and the middle fingertip along a line as the little fingertip, ring fingertip, and middle fingertip are spaced apart. a little finger portion (887; 987) comprising a first bent little finger alignment guide that contours the bending of a little finger at a first knuckle, a second knuckle, and a third knuckle; a ring finger portion (886; 986) comprising a first bent ring finger alignment guide that contours the bending of a ring finger at a first knuckle, a second knuckle, and a third knuckle; and a middle finger portion (885; 985) comprising a first middle finger alignment guide; characterised in that the device is a finger alignment training device (800; 900) for teaching proper finger positioning while performing a cosmetic sugaring hair removal procedure, and in that the bent little finger alignment guide, the bent ring finger alignment guide, and the middle finger alignment guide are configured to position the little fingertip, the ring fingertip, and the middle fingertip along a line as the little fingertip, ring fingertip, and middle fingertip are spaced apart.
A writing instrument provided with a pen tip and an ink tube, wherein a water-based ink composition is contained inside of the above mentioned ink tube, the above mentioned ink composition is a water-based ink composition containing 2.5 to 50 wt % of white-colored resin particles, 2.5 to 50 wt % of film-forming resin emulsions in a solid content with respect to the total amount of the ink, wherein the ratio of said white-colored resin particles to said film-forming resin emulsions is 1: 0. 5 to 1: 2 in a solid content and said white-colored resin particles and said film-forming resin emulsions in a solid content are contained in not less than 20 wt % in total, flowage amount of said ink out of the above mentioned pen tip is at least 50 mg/10m, and obtains a three-dimensional handwriting with a thickness of 20 to 50 μm.
A scanning display system, comprising: a laser light source comprising two or more offset lasers (102; 402A, 402B); and a scanning mirror system configured to scan light from the laser light source in a first direction at a higher frequency, and in a second direction at a lower frequency to form an image; characterized by: an eye tracking sensor configured to detect a gaze direction of a user; and a controller configured to map the gaze direction to a particular region in the image, to control the scanning mirror system to scan the laser light in an interlaced pattern to form the image, wherein the laser light is scanned along at least four laser traces corresponding to the output of said two or more offset lasers in two different first and second frames, which are successively interlaced, wherein the laser traces exhibit an at least partial sinusoidal motion, the controller being further configured to adjust a phase offset between the laser traces corresponding to said first frame and the laser traces corresponding to said second frame of the image based on the particular region in the image and using a mapping between regions in the image and respective phase offsets associated with the regions. a laser light source comprising two or more offset lasers (102; 402A, 402B); and a scanning mirror system configured to scan light from the laser light source in a first direction at a higher frequency, and in a second direction at a lower frequency to form an image; characterized by: an eye tracking sensor configured to detect a gaze direction of a user; and a controller configured to map the gaze direction to a particular region in the image, to control the scanning mirror system to scan the laser light in an interlaced pattern to form the image, wherein the laser light is scanned along at least four laser traces corresponding to the output of said two or more offset lasers in two different first and second frames, which are successively interlaced, wherein the laser traces exhibit an at least partial sinusoidal motion, the controller being further configured to adjust a phase offset between the laser traces corresponding to said first frame and the laser traces corresponding to said second frame of the image based on the particular region in the image and using a mapping between regions in the image and respective phase offsets associated with the regions.
A method for reliably in-place updating original content stored in storage blocks of a non-volatile storage to yield updated content, the method comprising: (a) prior to the in-place updating of original content, obtaining an error recovery result achievable by bit-wise applying an XOR function block by block to data stored in blocks designated to be used in updating the original content; (b) after obtaining the error recovery result, updating the original content while storing the updated content to the non-volatile storage in place of the original content, wherein said error recovery result is usable for recovering a part of said data which becomes non-reliable resulting from an interrupted in-place update, said recovery to be provided by bit-wise applying the XOR function to (i) said error recovery result and (ii) to a reliable part of said data, and where the method is applied for recovering non-reliable content that is a result of an interrupted in-place update of content stored in storage blocks of the non-volatile storage, wherein - one of the blocks (B i; B i ') stores non-reliable content and each one of the other blocks stores original content (B 1,...,B i-1, B i+1,...,B n) or updated content (B 1 ',...,B i-1 ', B i+1 ',..., B n '), and - recovering said non-reliable content is provided by bit-wise-applying said XOR function to said error recovery result and to data corresponding to the content stored in the other blocks. (a) prior to the in-place updating of original content, obtaining an error recovery result achievable by bit-wise applying an XOR function block by block to data stored in blocks designated to be used in updating the original content; (b) after obtaining the error recovery result, updating the original content while storing the updated content to the non-volatile storage in place of the original content, - one of the blocks (B i; B i ') stores non-reliable content and each one of the other blocks stores original content (B 1,...,B i-1, B i+1,...,B n) or updated content (B 1 ',...,B i-1 ', B i+1 ',..., B n '), and - recovering said non-reliable content is provided by bit-wise-applying said XOR function to said error recovery result and to data corresponding to the content stored in the other blocks.
A saw comprising: a base assembly; a saw assembly pivotally mounted on the base assembly which is capable of pivoting towards or away from the base assembly to a cut a work piece located on the base assembly; a motor (108, 110) mounted within the saw assembly; a fan mounted within the saw assembly which is rotationally driven by the motor (108, 110); a drive spindle rotatably driven by the motor via a drive mechanism; wherein the drive mechanism comprises a first rotatable shaft, a drive wheel mounted on the first rotatable shaft, a second rotatable shaft parallel to the first rotatable shaft, a driven wheel mounted on the second rotatable shaft, a drive belt wrapped around the drive wheel and driven wheel to transfer rotary motion of the first rotatable shaft to the second rotatable shaft; characterised in that the fan generates an air flow which passes over the drive belt. wherein the drive belt is located in a chamber to ensure that air flows over the belt, the air entering the chamber through a first aperture and exiting through a second aperture. a base assembly; a saw assembly pivotally mounted on the base assembly which is capable of pivoting towards or away from the base assembly to a cut a work piece located on the base assembly; a motor (108, 110) mounted within the saw assembly; a fan mounted within the saw assembly which is rotationally driven by the motor (108, 110); a drive spindle rotatably driven by the motor via a drive mechanism; wherein the drive mechanism comprises a first rotatable shaft, a drive wheel mounted on the first rotatable shaft, a second rotatable shaft parallel to the first rotatable shaft, a driven wheel mounted on the second rotatable shaft, a drive belt wrapped around the drive wheel and driven wheel to transfer rotary motion of the first rotatable shaft to the second rotatable shaft; characterised in that the fan generates an air flow which passes over the drive belt. wherein the drive belt is located in a chamber to ensure that air flows over the belt, the air entering the chamber through a first aperture and exiting through a second aperture.
Composition characterised in that it comprises a combination of peptide sequences chosen from the combination of sequences of SEQ ID NOs: 1, 2, 3, 5 and 6, the combination of sequences of SEQ ID NOs: 1, 3, 4, 5 and 6, and the combination of sequences of SEQ ID NOs: 1, 3, 5 and 6, each of said sequences being present in the form of a peptide of 9 to 15 amino acids or included in a multiepitope chimeric polypeptide.
Electrical cable connector having a longitudinal axis for connection of a plurality of electrical cables, with only one wire crimping region with at least one pair of wire crimping elements for receiving and fastening the wires of all electrical cables, wherein the wire crimping elements comprise at least a first and at least a second fastening crimping portion (18A, 18B), characterized in that the wire crimping elements comprise at least one contact crimping portion (16, 16A, 16B) provided in longitudinal direction between the fastening crimping portions (18A, 18B), wherein the length of the contact crimping portion (16, 16A, 16B) in a direction of extension perpendicular to the longitudinal axis of the cable connector is greater than the length of the fastening crimping portions (18A, 18B) in that direction, and wherein the fastening and contact crimping portions (16, 16A, 16B, 18A, 18B) are symmetrical with respect to the longitudinal axis of the cable connector.
Control method for semi-automatically transferring a driven utility vehicle having a sensor into a sensor-identifiable target position, the method comprising sensing a relative position of the utility vehicle relative to the target position and, derived from the relative position, automatic, regulation-based transverse control of the utility vehicle in such a way that, together with a longitudinal control, the transverse control transfers the utility vehicle into the target position, - using a remote control receiver of the utility vehicle, the presence of a longitudinal control signal generated by an operator located outside the utility vehicle using a remote control additionally being checked, - the transfer of the utility vehicle in accordance with the transverse control and the longitudinal control being initiated only when the activation signal is present for the first time, and - the transfer being interrupted and the utility vehicle being brought to a standstill in the absence of the activation signal, characterized in that when the relative position is sensed for the first time as the starting position, it is checked whether a transfer to the target position is at all possible from the starting position, and, if this is not the case, the transfer is not initiated and, in particular, the operator is informed in this regard. - using a remote control receiver of the utility vehicle, the presence of a longitudinal control signal generated by an operator located outside the utility vehicle using a remote control additionally being checked, - the transfer of the utility vehicle in accordance with the transverse control and the longitudinal control being initiated only when the activation signal is present for the first time, and - the transfer being interrupted and the utility vehicle being brought to a standstill in the absence of the activation signal, characterized in that when the relative position is sensed for the first time as the starting position, it is checked whether a transfer to the target position is at all possible from the starting position, and, if this is not the case, the transfer is not initiated and, in particular, the operator is informed in this regard.
Self-propelled construction machine or mining machine, in particular milling machine, for working a ground surface, comprising - a machine frame, - a working device for working the ground surface, which is supported on the machine frame, wherein the working device is at least partially enclosed by a housing, - at least one movable side plate, which closes the housing on at least one of the two sides of the working device, wherein the movable side plate rests on the ground surface in floating position during the working operation, characterized in that a clearing element is arranged in front of the at least one movable side plate as seen in the direction of travel, wherein the clearing element comprises at least one clearing edge, by means of which the clearing element may penetrate ground material lying on the ground surface in front of the movable side plate, and clears the ground material for the movable side plate so that the movable side plate may rest on the ground surface. - a machine frame, - a working device for working the ground surface, which is supported on the machine frame, wherein the working device is at least partially enclosed by a housing, - at least one movable side plate, which closes the housing on at least one of the two sides of the working device, wherein the movable side plate rests on the ground surface in floating position during the working operation,
A low voltage power distribution system to supply power between electrical modules (108, 112) via a conductive contact of one of the electrical modules (108, 112), for use with a first low voltage power conductor (104, 120, 142, 170, 188), the low voltage power distribution system comprising: a clamp that includes a clamp body and a clamp spacer; the clamp spacer being formed as an single, integral conductive component, characterized in that the clamp spacer includes a base portion and at least two legs that extend from two opposing sides of the base portion; the base portion being configured to provide electrical conduction between the first low voltage power conductor (104, 120, 142, 170, 188) and the conductive contact, with the legs extending away from the conductive contact along opposing sides of the first low voltage power conductor (104, 120, 142, 170, 188) to limit deformation of the first low voltage power conductor (104, 120, 142, 170, 188) upon compression of the lower voltage power conductor (104, 120, 142, 170, 188) by the clamp body. a clamp that includes a clamp body and a clamp spacer; the clamp spacer being formed as an single, integral conductive component, characterized in that the clamp spacer includes a base portion and at least two legs that extend from two opposing sides of the base portion; the base portion being configured to provide electrical conduction between the first low voltage power conductor (104, 120, 142, 170, 188) and the conductive contact, with the legs extending away from the conductive contact along opposing sides of the first low voltage power conductor (104, 120, 142, 170, 188) to limit deformation of the first low voltage power conductor (104, 120, 142, 170, 188) upon compression of the lower voltage power conductor (104, 120, 142, 170, 188) by the clamp body.
An illumination device comprising: - a plurality of LEDs (101a, 101b, 101c) emitting light in different source colors, the light of the illumination device being obtained by a combination of the source colors of the plurality of LEDs, - an interface adapted to receive an input signal indicative of at least a color and/or brightness to be emitted by the illumination device, - a storage unit comprising colorimetric data indicative of colorimetric properties of the light emitted by the plurality of LEDs, wherein the colorimetric properties of the LEDs define the actual color gamut of the illumination device; the storage unit further comprising predefined color gamut data indicative of a predefined color gamut, - a processing unit adapted to generate an activation signal for the plurality of LEDs (101a, 101b, 101c) based on the input signal, wherein the processing unit is adapted to generate an adjusted color gamut based on the actual color gamut and based on the predefined color gamut, wherein the processing unit is adapted to generate the activation signal for the plurality of LEDs based on the input signal and based on the adjusted color gamut, characterized in that the interface is adapted to receive an adjustment parameter, the adjustment parameter being indicative of to what extent the adjusted color gamut should correspond to the actual color gamut or to the predefined color gamut, the adjusted color gamut being situated on or between the actual color gamut and the predetermined color gamut, wherein the processing unit is adapted to generate the adjusted color gamut based on the received adjustment parameter. - a plurality of LEDs (101a, 101b, 101c) emitting light in different source colors, the light of the illumination device being obtained by a combination of the source colors of the plurality of LEDs, - an interface adapted to receive an input signal indicative of at least a color and/or brightness to be emitted by the illumination device, - a storage unit comprising colorimetric data indicative of colorimetric properties of the light emitted by the plurality of LEDs, wherein the colorimetric properties of the LEDs define the actual color gamut of the illumination device; the storage unit further comprising predefined color gamut data indicative of a predefined color gamut, - a processing unit adapted to generate an activation signal for the plurality of LEDs (101a, 101b, 101c) based on the input signal, wherein the processing unit is adapted to generate an adjusted color gamut based on the actual color gamut and based on the predefined color gamut, wherein the processing unit is adapted to generate the activation signal for the plurality of LEDs based on the input signal and based on the adjusted color gamut, characterized in that
A seawater-erodible copolymer comprising from 5 to 11 mole percent of the residue of a tri(aliphatic)silyl(meth)acrylate monomer and the balance of the copolymer comprising the residues of one or more ethylenically unsaturated monomers copolymerizable with said silyl(meth)acrylate, said copolymer having an erosion rate in seawater of from 5 to 15 μm/month, wherein the tri(aliphatic)silyl(meth)acrylate monomer is triisopropylsilylacrylate and the ethylenically unsaturated monomer is chosen from acrylic acid, methylacrylate, ethylacrylate, n-butylacrylate, t-butylacrylate, sec-butylacrylate, 2-ethylhexylacrylate, n-octylacrylate, 2-hydroxyethylacrylate, 2-hydroxypropylacrylate, glycidyl acrylate, 2-methoxyethylacrylate, 2-ethoxyethylaoylate, methacrylic acid, methylmethacrylate, n-butylmethacrylate, t-butylmethacrylate, sec-butylmethacrylate, 2-ethylhexylmethacrylate, cydohexylmethaaylate, 2-hydroxyethylmethacrylate, 2-hydroxypropylmethacrylate, glycidylmethacrylate, 2-methoxyethylmethacrylate, 2-ethoxyethylmethacrylate, vinyl acetate, vinyl propionate, vinyl butyrate, vinyl benzoate, dimethyl maleate, diethyl maleate, di-n-propyl maleate, diisopropyl maleate, di-2-methoxyethyl maleate, dimethyl fumarate, diethyl fumarate, di-n-propyl fumarate, diisopropyl fumarate, styrene, vinyltoluene, alpha-methylstyrene and acrylonitrile and wherein the seawater erodible copolymer has a weight average molecular weight from 20 000 to 100 000.