mhurhangee/patent-ind-claim-en huggingface dataset:
A treatment device comprising: a shaft including a distal end; an expandable member including a proximal end and a distal end, wherein the proximal end of the expandable member is coupled to the distal end of the shaft; wherein the expandable member further includes at least a first controllable portion and a second controllable portion; and first and second elongated control members connected to different point locations on the expandable member and configured to be separately controlled so as to independently apply force to the expandable member; wherein the expandable member, including the first controllable portion and the second controllable portion, is configured to transition between at least a partially retracted configuration and an expanded configuration under control of the first and second elongated control members; and wherein the first controllable portion is configured to transition between at least a partially retracted configuration and an expanded configuration under control of the first elongated control member, while the second controllable portion is configured to remain substantially unchanged, under control of the second elongated control member. a shaft including a distal end; an expandable member including a proximal end and a distal end, wherein the proximal end of the expandable member is coupled to the distal end of the shaft; wherein the expandable member further includes at least a first controllable portion and a second controllable portion; and first and second elongated control members connected to different point locations on the expandable member and configured to be separately controlled so as to independently apply force to the expandable member; wherein the expandable member, including the first controllable portion and the second controllable portion, is configured to transition between at least a partially retracted configuration and an expanded configuration under control of the first and second elongated control members; and wherein the first controllable portion is configured to transition between at least a partially retracted configuration and an expanded configuration under control of the first elongated control member, while the second controllable portion is configured to remain substantially unchanged, under control of the second elongated control member.
A bi-directional perfusion cannula comprising an elongate tube for insertion into an artery, the elongate tube comprising: a first aperture at a distal end of the elongate tube which is forward during insertion, the first aperture being configured so that blood can flow into the artery in the direction of insertion; an elbow preformed in the elongate tube ; and a second aperture , the second aperture being formed in or slightly rearward of the elbow and configured for supplying blood into the artery in a second direction which is generally opposite to the insertion direction, wherein the elbow is preformed in the elongate tube such that in a relaxed state prior to insertion the cannula has an elbow bend formed in it, preferably in the range of 90 to 180 degrees, and wherein said elongate tube has a protuberance at least partially formed on the elbow , the bi-directional perfusion cannula being characterized in that the protuberance is ovoid in cross section. a first aperture at a distal end of the elongate tube which is forward during insertion, the first aperture being configured so that blood can flow into the artery in the direction of insertion; an elbow preformed in the elongate tube ; and a second aperture , the second aperture being formed in or slightly rearward of the elbow and configured for supplying blood into the artery in a second direction which is generally opposite to the insertion direction, wherein the elbow is preformed in the elongate tube such that in a relaxed state prior to insertion the cannula has an elbow bend formed in it, preferably in the range of 90 to 180 degrees, and wherein said elongate tube has a protuberance at least partially formed on the elbow , the bi-directional perfusion cannula being characterized in that the protuberance is ovoid in cross section.
A bladder for an article of footwear , the bladder comprising: a support chamber extending along a longitudinal axis (A 109 ) from an anterior end to a posterior end formed at an opposite end from the anterior end and having a top wall , a bottom wall , and a peripheral wall extending between the top wall and the bottom wall and defining a peripheral profile of the support chamber ; and an expansion chamber including a flat upper wall and a curved lower wall , the expansion chamber extending from the peripheral wall at a first end of the bladder , wherein the lower wall projects outwardly from the peripheral wall of the support chamber between the top wall and the bottom wall , and wherein the lower wall has a semi-spherical curvature, such that the lower wall curves both about and along the longitudinal axis (A 109 ) of the support chamber . a support chamber extending along a longitudinal axis (A 109 ) from an anterior end to a posterior end formed at an opposite end from the anterior end and having a top wall , a bottom wall , and a peripheral wall extending between the top wall and the bottom wall and defining a peripheral profile of the support chamber ; and an expansion chamber including a flat upper wall and a curved lower wall , the expansion chamber extending from the peripheral wall at a first end of the bladder , wherein the lower wall projects outwardly from the peripheral wall of the support chamber between the top wall and the bottom wall , and wherein the lower wall has a semi-spherical curvature, such that the lower wall curves both about and along the longitudinal axis (A 109 ) of the support chamber .
An electrochromic window system comprising: i) at least one electrochromic, EC, window ; ii) an EC window controller ; iii) a photovoltaic, PV, power converter ; and characterized in that it further comprises iv) an optical fiber ; wherein the PV power converter is configured to receive photonic energy by way of the optical fiber, and convert the photonic energy to electricity for delivery to the EC window controller. i) at least one electrochromic, EC, window ; ii) an EC window controller ; iii) a photovoltaic, PV, power converter ; and characterized in that it further comprises iv) an optical fiber ;
A liquid crystal display panel , comprising: a first substrate and a second substrate facing each other; a liquid crystal layer positioned between the first substrate and the second substrate ; a plurality of color filters positioned on the first substrate and representing different colors from each other, wherein at least two of the plurality of color filters overlap with each other on the first substrate to form an overlapping portion (OP), and a transparent filter positioned on the first substrate and positioned in a transmitting area of a white pixel (PX_W); the overlapping portion (OP) forms a first spacer (CS_S); characterized in that the liquid crystal display panel comprises a second spacer (CS_M, 350) including the same material as the transparent filter , the second spacer (CS_M, 350) is separated from the transparent filter , and the first spacer (CS_S) and the second spacer (CS_M, 350) protrude toward the liquid crystal layer such that a thickness of the liquid crystal layer corresponding to the first spacer (CS_S) or the second spacer (CS_M, 350) is less than a thickness of the liquid crystal layer corresponding to the transmitting area of the white pixel (PX_W). a first substrate and a second substrate facing each other; a liquid crystal layer positioned between the first substrate and the second substrate ; a plurality of color filters positioned on the first substrate and representing different colors from each other, wherein at least two of the plurality of color filters overlap with each other on the first substrate to form an overlapping portion (OP), and a transparent filter positioned on the first substrate and positioned in a transmitting area of a white pixel (PX_W); the overlapping portion (OP) forms a first spacer (CS_S); characterized in that the liquid crystal display panel comprises a second spacer (CS_M, 350) including the same material as the transparent filter , the second spacer (CS_M, 350) is separated from the transparent filter , and the first spacer (CS_S) and the second spacer (CS_M, 350) protrude toward the liquid crystal layer such that a thickness of the liquid crystal layer corresponding to the first spacer (CS_S) or the second spacer (CS_M, 350) is less than a thickness of the liquid crystal layer corresponding to the transmitting area of the white pixel (PX_W).
A disposable guide device for spinal surgery, comprising: - two tubular guide bodies extending along respective main axes (A) between a proximal end and a distal end to guide a surgical operation on a vertebra of a patient; - a plurality of support feet projecting laterally relative to each guide body , near said proximal end , each defining a contact area configured to abut on a side of the spinous process or on a lamina or facet or transverse process of the vertebra of the patient, in a mating configuration; - at least one junction element extending between said guide bodies , starting from the respective distal ends , in order to space them from each other; wherein in the guide bodies are oriented so that the proximal ends are more distant from each other with respect to the distal ends , wherein said at least one junction element comprises a curved handle extending from both of the guide bodies , away from them, up to a top intermediate portion and at least one junction bridge between said two guide bodies provided with at least one central portion designed to pass over, with or without contact, a spinous process of the vertebra to be operated; wherein with reference to a cross section plane (B) passing through said intermediate portion of the handle and through said central portion of the bridge , a projection of the main axis (A) on said section plane (B) defines a first angle (α) comprised between 20° and 60° with a projection (Pm), on said section plane (B), of a median line of said handle , a second angle (β) with a projection (Pb), on said section plane (B), of a median line of said bridge , wherein said bridge and said handle extend from said guide bodies away from each other. - two tubular guide bodies extending along respective main axes (A) between a proximal end and a distal end to guide a surgical operation on a vertebra of a patient; - a plurality of support feet projecting laterally relative to each guide body , near said proximal end , each defining a contact area configured to abut on a side of the spinous process or on a lamina or facet or transverse process of the vertebra of the patient, in a mating configuration; - at least one junction element extending between said guide bodies , starting from the respective distal ends , in order to space them from each other;
A curable composition comprising at least one compound of the formula : wherein R is C1-C10 alkyl, and R 1 -R 10 each are independently selected from the group consisting of hydrogen and C1-C10 alkyl, with the proviso that at least one of R 1 -R 10 is C1-C10 alkyl, and wherein the substitution patterns formed by the residues R 1 -R 5 and R 6 -R 10 on each of the aromatic rings are different from each other, wherein preferably R is methyl and R 1 -R 10 are each independently selected from the group consisting of hydrogen and methyl, with the proviso that at least one of R 1 -R 10 is methyl.
A compressor , having a compressor housing , having a drive device and having a compression device with one or more compression stages (14-1, 14-2) for compressing a refrigerant, wherein the compressor furthermore has one or more refrigerant feed devices for feeding refrigerant to the compression device and one or more refrigerant discharge devices for discharging refrigerant from the compression device , wherein at least one section of the one refrigerant feed device or at least one section of at least one, in particular each of the multiple refrigerant feed devices is arranged so as to be thermally separate from the one refrigerant discharge device or at least one, in particular each of the multiple refrigerant discharge devices characterized in that the high-pressure refrigerant discharge device has five high-pressure refrigerant discharge device sub-regions which are each connected to one another in gas-tight fashion, namely a first, tubular high-pressure refrigerant discharge device sub-region (38-1) which extends outside the compressor housing from the compressor housing to a high-pressure port ; a second high-pressure refrigerant discharge device sub-region (38-2) which is likewise of tubular form and which extends within the compressor housing from the compressor housing to a third high-pressure refrigerant discharge device sub-region (38-3); the third high-pressure refrigerant discharge device sub-region (38-3) which is of approximately cuboidal form, that is to say has a rectangular cross section, and which serves for pulsation damping in the high-pressure volume; a fourth high-pressure refrigerant discharge device sub-region (38-4) which extends from the third high-pressure refrigerant discharge device sub-region (38-3) to the compression unit ; and a fifth high-pressure refrigerant discharge device sub-region (38-5) which is formed in the compression unit and which is connected to cylinder outlets of the compression stage (14-2) and which serves for the discharge of refrigerant at high pressure or compression end pressure.
An electronic device comprising: a first display disposed on a first surface of the electronic device, the first display comprising: a display panel configured to display a specified object; a touch panel configured to receive a touch input for the specified object; and a pressure sensor configured to sense a pressure of the touch input, a second display disposed on a second surface opposite to the first surface of the electronic device; a sensor module configured to measure a physical quantity or detect an operation state of the electronic device; and a processor configured to output content associated with the touched specified object on the first display or the second display based on the pressure of the touch input, and to determine the electronic device being turned over using the sensor module; wherein, when the pressure of the touch input is less than or equal to a specified value, the processor is configured to output the content on the first display; and when the pressure of the touch input is greater than the specified value and the processor determines the electronic device being turned over, the processor is configured to output the content on the second display. a first display disposed on a first surface of the electronic device, the first display comprising: a display panel configured to display a specified object; a touch panel configured to receive a touch input for the specified object; and a pressure sensor configured to sense a pressure of the touch input, a display panel configured to display a specified object; a touch panel configured to receive a touch input for the specified object; and a pressure sensor configured to sense a pressure of the touch input, a second display disposed on a second surface opposite to the first surface of the electronic device; a sensor module configured to measure a physical quantity or detect an operation state of the electronic device; and a processor configured to output content associated with the touched specified object on the first display or the second display based on the pressure of the touch input, and to determine the electronic device being turned over using the sensor module; wherein, when the pressure of the touch input is less than or equal to a specified value, the processor is configured to output the content on the first display; and when the pressure of the touch input is greater than the specified value and the processor determines the electronic device being turned over, the processor is configured to output the content on the second display.
A method of controlling an over-pressure detection and limitation device configured to prevent an over-pressure condition of pressurized gas being delivered by a respiratory treatment apparatus, the method comprising: setting a pressure limit of the pressure limitation device to a first maximum pressure threshold; and setting the pressure limit of the pressure limitation device to a second maximum pressure threshold in response to a detection of a condition based on a third pressure threshold. setting a pressure limit of the pressure limitation device to a first maximum pressure threshold; and setting the pressure limit of the pressure limitation device to a second maximum pressure threshold in response to a detection of a condition based on a third pressure threshold.
Motor vehicle lighting system for emitting a light beam comprising at least two illuminated zones each generated by at least one light source and optical means adapted to form a light spot from the light emitted by the light source , wherein the light spots each have the general shape of a strip and are all of substantially identical shape and substantially parallel to a common and vertical principal direction, such that the light beam has a rectangular general shape and is divided into substantially parallel rectangular strips, characterized in that it comprises at least two types of light source, termed first and second light source types, the light sources of the same type having substantially the same luminance, and the luminance of a light source of the first type being 2 to 10 times greater than that of a light source of the second type. characterized in that it comprises at least two types of light source, termed first and second light source types, the light sources of the same type having substantially the same luminance, and the luminance of a light source of the first type being 2 to 10 times greater than that of a light source of the second type.
A ballistic material, comprising: a first woven ballistic fabric having a fiber denier in a range of 50 d to 5000 d; and a hydroentangled nonwoven fiber component having a denier in a range of about 0.5 d to about 2.5 d and a density of about 10 g/m 2 to about 200 g/m 2 ; wherein the hydroentangled nonwoven fiber component is needlepunched with the woven ballistic fabric to form the ballistic material, wherein the hydroentangled nonwoven fiber component constitutes 0.1 to 10% by weight of the ballistic material; and wherein the ballistic material has a finished areal weight in a range of 0.48824 kg/m 2 to about 9.7648 kg/m 2 and a V50 in a range of about 228.6 to about 914.4 meters per second. a first woven ballistic fabric having a fiber denier in a range of 50 d to 5000 d; and a hydroentangled nonwoven fiber component having a denier in a range of about 0.5 d to about 2.5 d and a density of about 10 g/m 2 to about 200 g/m 2 ; wherein the hydroentangled nonwoven fiber component is needlepunched with the woven ballistic fabric to form the ballistic material, wherein the hydroentangled nonwoven fiber component constitutes 0.1 to 10% by weight of the ballistic material; and wherein the ballistic material has a finished areal weight in a range of 0.48824 kg/m 2 to about 9.7648 kg/m 2 and a V50 in a range of about 228.6 to about 914.4 meters per second.
Glass wall of a building comprising at least two fixed glass panels , the panels being formed of a multiple insulating glazing formed of several glass sheets , the said glazing comprising: a. two horizontal spacers between each glass sheet ; b. at least one transparent vertical spacer on an edge contiguous with another panel; c. a first double horizontal peripheral seal between the horizontal spacers and each glass sheet ; d. a second horizontal peripheral seal ; e. at least one first transparent double vertical peripheral seal between the transparent vertical spacer and each glass sheet ; f. an internal space between the glass sheets delimited by the horizontal spacers and vertical spacers comprising a covering of insulating gas, wherein a. the horizontal spacers and vertical spacers are connected by at least one tightness element in order to form a spacer frame ; b. at least one second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is non-transparent and leaktight to water vapour and to the insulating gas of the internal space ; c. two contiguous panels are connected by at least one seal base contiguous with the second vertical peripheral seal of each panel ; d. the second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is free from tensile stress and/or from shear with respect to the adjacent panel; e. a tightness lining is located between the glass sheets of two contiguous panels and is in contact with the seal base ; f. the glass wall is devoid of vertical rigid frame element in the vicinity of the edge of the panel contiguous with the transparent spacer . a. two horizontal spacers between each glass sheet ; b. at least one transparent vertical spacer on an edge contiguous with another panel; c. a first double horizontal peripheral seal between the horizontal spacers and each glass sheet ; d. a second horizontal peripheral seal ; e. at least one first transparent double vertical peripheral seal between the transparent vertical spacer and each glass sheet ; f. an internal space between the glass sheets delimited by the horizontal spacers and vertical spacers comprising a covering of insulating gas, a. the horizontal spacers and vertical spacers are connected by at least one tightness element in order to form a spacer frame ; b. at least one second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is non-transparent and leaktight to water vapour and to the insulating gas of the internal space ; c. two contiguous panels are connected by at least one seal base contiguous with the second vertical peripheral seal of each panel ; d. the second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is free from tensile stress and/or from shear with respect to the adjacent panel; e. a tightness lining is located between the glass sheets of two contiguous panels and is in contact with the seal base ; f. the glass wall is devoid of vertical rigid frame element in the vicinity of the edge of the panel contiguous with the transparent spacer .