mhurhangee/ep-ind-claims huggingface dataset:
A housing attachment for a biopsy port (10; 400; 600) of an endoscope, comprising: a first center-split half comprising: a first portion defining a first half of an upper chamber; a second portion defining a first half of a lower chamber; and a first locking member extending from an inner surface of the first center-split half, the first locking member configured to engage the biopsy port (10, 600); a second center-split half comprising: a first portion defining a second half of the upper chamber; a second portion defining a second half of the lower chamber; and a second locking member extending from an inner surface of the second center-split half, the second locking member configured to engage the biopsy port; wherein mating surfaces (111a, 111b) of the first and second center-split halves (110a, 1 10b) are configured to interlock; and wherein the upper chamber is configured to receive a biopsy cap (44; 300), and wherein the lower chamber is configured to receive the biopsy port (10; 600), characterised in that the housing attachment further comprises: a base disposed within the biopsy cap (44; 300) in the upper chamber and configured to be disposed about the biopsy port (10; 600). a first center-split half comprising: a first portion defining a first half of an upper chamber; a second portion defining a first half of a lower chamber; and a first locking member extending from an inner surface of the first center-split half, the first locking member configured to engage the biopsy port (10, 600); a first portion defining a first half of an upper chamber; a second portion defining a first half of a lower chamber; and a first locking member extending from an inner surface of the first center-split half, the first locking member configured to engage the biopsy port (10, 600); a second center-split half comprising: a first portion defining a second half of the upper chamber; a second portion defining a second half of the lower chamber; and a second locking member extending from an inner surface of the second center-split half, the second locking member configured to engage the biopsy port; a first portion defining a second half of the upper chamber; a second portion defining a second half of the lower chamber; and a second locking member extending from an inner surface of the second center-split half, the second locking member configured to engage the biopsy port; wherein mating surfaces (111a, 111b) of the first and second center-split halves (110a, 1 10b) are configured to interlock; and wherein the upper chamber is configured to receive a biopsy cap (44; 300), and wherein the lower chamber is configured to receive the biopsy port (10; 600), characterised in that the housing attachment further comprises: a base disposed within the biopsy cap (44; 300) in the upper chamber and configured to be disposed about the biopsy port (10; 600).
A security device comprising: an array of focusing elements, each focusing element being adapted to focus light in at least two orthogonal directions, the focusing elements being arranged on a regular two-dimensional grid; and an array of elongate image elements (17, 18) overlapping the array of focusing elements, configured such that each focusing element can direct light from any one of a respective set of at least two elongate image elements to the viewer, in dependence on the viewing angle; wherein in a first region of the security device, the elongate image elements extend along a first direction, and in a second region of the security device, the elongate image elements extend along a second direction which is different to the first direction. an array of focusing elements, each focusing element being adapted to focus light in at least two orthogonal directions, the focusing elements being arranged on a regular two-dimensional grid; and an array of elongate image elements (17, 18) overlapping the array of focusing elements, configured such that each focusing element can direct light from any one of a respective set of at least two elongate image elements to the viewer, in dependence on the viewing angle; wherein in a first region of the security device, the elongate image elements extend along a first direction, and in a second region of the security device, the elongate image elements extend along a second direction which is different to the first direction.
A cell system using air as a positive-electrode active material and a specific substance as a negative-electrode active material, the cell system comprising: a film having a thin film of the specific substance on both or one side; a pair of reels (10,90), each end being connected to the thin film; and an electrode positioned in a vicinity of a path of the thin film between each of the reels, wherein the thin film and the pair of reels (10, 90) are contained in a cartridge characterized by comprising a container that is positioned downstream of the electrode and includes a liquid solution that dissolves the specific substance oxidized when power is generated, the container being contained in the cartridge. a film having a thin film of the specific substance on both or one side; a pair of reels (10,90), each end being connected to the thin film; and an electrode positioned in a vicinity of a path of the thin film between each of the reels, wherein the thin film and the pair of reels (10, 90) are contained in a cartridge characterized by comprising a container that is positioned downstream of the electrode and includes a liquid solution that dissolves the specific substance oxidized when power is generated, the container being contained in the cartridge.
A heat-shrinkable polyester film (2,6) which satisfies the following requirements (i) to (iv): (i) the film (2,6) has a hot-water shrinkage of 50% or more in a main shrinkage direction of the film (2,6) when treated for 10 seconds in hot water of 98°C; (ii) when samples are taken at every 100 mm in a width direction of the film (2,6), and hot-water shrinkages in a direction orthogonal to the main shrinkage direction of the film (2,6) are determined for all the samples when treated for 10 seconds in hot water of 98°C, a variation of the hot-water shrinkages is 5% or less; (iii) an absolute value of a molecular orientation angle is 15 degrees or less; and (iv) a refractive index difference represented by the following equation is 0.06 or more: Refractive index difference = Refractive index in the main shrinkage direction − Refractive index in a direction orthogonal to the main shrinkage direction, wherein the main shrinkage direction is a longitudinal direction of the film (2,6). (i) the film (2,6) has a hot-water shrinkage of 50% or more in a main shrinkage direction of the film (2,6) when treated for 10 seconds in hot water of 98°C; (ii) when samples are taken at every 100 mm in a width direction of the film (2,6), and hot-water shrinkages in a direction orthogonal to the main shrinkage direction of the film (2,6) are determined for all the samples when treated for 10 seconds in hot water of 98°C, a variation of the hot-water shrinkages is 5% or less; (iii) an absolute value of a molecular orientation angle is 15 degrees or less; and (iv) a refractive index difference represented by the following equation is 0.06 or more: Refractive index difference = Refractive index in the main shrinkage direction − Refractive index in a direction orthogonal to the main shrinkage direction,
Vibration limit switch comprising a piezoelectric transmitting and/or receiving unit, a membrane that can be put in oscillation and a mechanical oscillation arrangement, which is coupled to the membrane, the piezoelectric transmitting and/or receiving unit being adhered to the membrane directly or via an adaptation layer by means of an adhesive layer, characterized in that the adhesive layer between the membrane and the transmitting and/or receiving unit or the adaptation layer has a thickness in an edge area which is elevated in comparison to a central area.
An article of footwear having an upper and a sole structure secured to the upper, the upper comprising: a knit element formed from at least one yarn; an inlaid strand extending through the knit element, wherein the knit element and the inlaid strand extend from the throat area to a rear portion of a heel region of the upper, wherein the inlaid strand comprises a first section and a second section, the first section being separate from the second section, wherein the first section extends from a throat area to the rear portion of the heel region, and wherein the second section extends from the throat area to a lower area of the upper that is adjacent the sole structure, characterised in that the knit element and the first section of the inlaid strand further extend continuously from a throat area on a first side of the footwear around the heel region to a second side of the footwear that is opposite the first side. a knit element formed from at least one yarn; an inlaid strand extending through the knit element, wherein the knit element and the inlaid strand extend from the throat area to a rear portion of a heel region of the upper, wherein the inlaid strand comprises a first section and a second section, the first section being separate from the second section, wherein the first section extends from a throat area to the rear portion of the heel region, and wherein the second section extends from the throat area to a lower area of the upper that is adjacent the sole structure, characterised in that the knit element and the first section of the inlaid strand further extend continuously from a throat area on a first side of the footwear around the heel region to a second side of the footwear that is opposite the first side.
A surgical access device, comprising: a body defining a central longitudinal axis, and a deformable surgical access member configured to be in communication with the body, the deformable surgical access member defining an outer tissue-contacting surface which contains a plurality of continuous turns of a thread, in which the deformable surgical access member is configured to receive a compressive force to effect an increase in an outer diameter thereof so that the continuous turns of the threads on the outer tissue-contacting surface can form a seal with tissue at a plurality of axial locations along a length of the deformable surgical access member. a body defining a central longitudinal axis, and a deformable surgical access member configured to be in communication with the body, the deformable surgical access member defining an outer tissue-contacting surface which contains a plurality of continuous turns of a thread, in which the deformable surgical access member is configured to receive a compressive force to effect an increase in an outer diameter thereof so that the continuous turns of the threads on the outer tissue-contacting surface can form a seal with tissue at a plurality of axial locations along a length of the deformable surgical access member.
Apparatus for analyzing ECG signals during application of CPR, the apparatus comprising: means configured to detect ECG signals during application of chest compressions; a velocity sensor configured to be positioned to sense relative velocity between opposite surfaces of the chest, the velocity sensor comprising a conductor and a magnet configured to sense said relative velocity by sensing current induced in the conductor by relative motion between the conductor and the magnet; means configured to detect the output of said velocity sensor from which information on the velocity of chest compressions is determined; and means configured to use the information on the velocity to reduce at least one signal artifact in the ECG signal resulting from the chest compressions. means configured to detect ECG signals during application of chest compressions; a velocity sensor configured to be positioned to sense relative velocity between opposite surfaces of the chest, the velocity sensor comprising a conductor and a magnet configured to sense said relative velocity by sensing current induced in the conductor by relative motion between the conductor and the magnet; means configured to detect the output of said velocity sensor from which information on the velocity of chest compressions is determined; and means configured to use the information on the velocity to reduce at least one signal artifact in the ECG signal resulting from the chest compressions.
A method comprising: obtaining a first pitch distribution of first audio, the first audio comprising an audio sample or set of audio samples; obtaining a second pitch distribution of second audio, the second audio comprising an audio sample or set of audio samples; determining, based on the first pitch distribution and the second pitch distribution, a pitch shift to increase harmonic coherence of the first audio and the second audio; and using, by a device, the pitch shift to increase harmonic coherence of the first audio and the second audio. obtaining a first pitch distribution of first audio, the first audio comprising an audio sample or set of audio samples; obtaining a second pitch distribution of second audio, the second audio comprising an audio sample or set of audio samples; determining, based on the first pitch distribution and the second pitch distribution, a pitch shift to increase harmonic coherence of the first audio and the second audio; and using, by a device, the pitch shift to increase harmonic coherence of the first audio and the second audio.
A method of palette index map decoding for blocks in a picture, wherein one or more symbols for a current block are coded using palette coding modes comprising a copy-index mode and a copy-above mode and wherein the copy-index mode represents first consecutive indices all having one first index value, and the copy-above mode represents second consecutive indices all having same second index values as corresponding above pixels, comprising: receiving input bitstream associated with a current block in the picture; parsing a coded syntax element corresponding to a first variable minus 1 from the input bitstream, wherein the first variable corresponds to a total number of palette indices associated with the copy-index mode in the current block; decoding the coded syntax element into a syntax element, wherein said decoding the coded syntax element comprises decoding the coded syntax element using N-th order exponential Golomb code and N is a non-negative integer; and applying palette decoding to the current block according to the syntax element; characterized in that N increases with an increase of a size of the current block, wherein N is set to 0 if the current block is an 8x8 coding unit, CU, N is set to 1 if the current block is a 16x16 CU, and N is set to 2 if the current block is a 32x32 CU. receiving input bitstream associated with a current block in the picture; parsing a coded syntax element corresponding to a first variable minus 1 from the input bitstream, wherein the first variable corresponds to a total number of palette indices associated with the copy-index mode in the current block; decoding the coded syntax element into a syntax element, wherein said decoding the coded syntax element comprises decoding the coded syntax element using N-th order exponential Golomb code and N is a non-negative integer; and applying palette decoding to the current block according to the syntax element; characterized in that N increases with an increase of a size of the current block, wherein N is set to 0 if the current block is an 8x8 coding unit, CU, N is set to 1 if the current block is a 16x16 CU, and N is set to 2 if the current block is a 32x32 CU.
A vehicle rear view device with an illuminating element, a light source, at least one light guide and a device for optimal coupling of light into the light guide in the illuminating element, wherein the light guide has at least one coupling surface which is spaced apart from at least one TIR lens, the light source consists of at least one LED which extends into a recess of the at least one TIR lens, and the at least one recess of the TIR lens comprises the at least one LED in a solid angle of at least 180°, and the TIR lens extends to below the semiconductor level of the LED such that the recess of the TIR lens comprises the whole range of the optical emission of the LED.
Method for determining variables influencing the movement of a robot, the method comprising the following steps: a) the provision of a work task to be performed by the robot and by an operator; b) the provision of a layout of a workstation where the work task is to be performed; c) the provision of tool data characterising a tool to be used by the robot in performing the work task; d) the determination of respective axial movement sequences of the robot which are required for performing the work task, taking account of the information provided in the preceding steps; e) the provision of a working space of the operator; f) the determination of relevant critical track points of the robot within the working space of the operator, where a predetermined speed of movement is exceeded by the robot and/or a predetermined mass of an element to be moved by means of the robot is exceeded, taking account of the axial movement sequences and of the working space; g) the emulation of respective collisions by means of a second robot at the relevant track points by carrying out a determination of the collision forces and contact pressures that physically occur in operation with the aid of a test set-up consisting of the second robot, which emulates a rigid impact at any position of the working space; h) the determination of permissible traversing speeds of the robot for each critical track point, taking account of the emulated collisions. a) the provision of a work task to be performed by the robot and by an operator; b) the provision of a layout of a workstation where the work task is to be performed; c) the provision of tool data characterising a tool to be used by the robot in performing the work task; d) the determination of respective axial movement sequences of the robot which are required for performing the work task, taking account of the information provided in the preceding steps; e) the provision of a working space of the operator; f) the determination of relevant critical track points of the robot within the working space of the operator, where a predetermined speed of movement is exceeded by the robot and/or a predetermined mass of an element to be moved by means of the robot is exceeded, taking account of the axial movement sequences and of the working space; g) the emulation of respective collisions by means of a second robot at the relevant track points by carrying out a determination of the collision forces and contact pressures that physically occur in operation with the aid of a test set-up consisting of the second robot, which emulates a rigid impact at any position of the working space; h) the determination of permissible traversing speeds of the robot for each critical track point, taking account of the emulated collisions.
A wearable article continuous in a longitudinal direction and a transverse direction, comprising a main body and a ring-like elastic belt comprising a front belt and a back belt, the center of the front belt is joined to a front waist panel of the main body, the center of the back belt is joined to a back waist panel of the main body, the front and back belt each having a left side panel and a right side panel where the main body does not overlap, and the transverse edges of the front belt and the back belt are joined by a seam only to form a waist opening and two leg openings, wherein each of the front belt and back belt are formed by an inner sheet, an outer sheet, and a plurality of elastic bodies sandwiched therebetween and running in the transverse direction substantially parallel to each other, wherein each front belt and back belt have transversely continuous proximal and distal edges (90, 88), the proximal edge being located closer than the distal edge relative to the longitudinal center of the article, each front belt and back belt having side edges, wherein: the entirety of the length of the belt side edge of the front belt is seamed with a certain length of the belt side edge of the back belt to define a seam length LS; the front and back belts (84, 86) each divided into 4 zones extending in the transverse direction and defined by its location from the distal edge to the proximal edge relative to the percentage of the seam length LS wherein; 0-25% is the waist zone, 25-50% is the distal tummy zone, 50-85% is the proximal tummy zone, and 85-100% is the leg zone; wherein the tensile stress of the front proximal tummy zone is higher than the tensile stress of any other zone, and no less than 200% of the tensile stress of the front distal tummy zone, wherein the tensile stress of the front distal tummy zone is lower than the tensile stress of the back distal tummy zone, preferably no more than 70% of the tensile stress of the back distal tummy zone, and the tensile stress of the front proximal tummy zone is no less than 150% of the tensile stress of the back proximal tummy zone, the tensile stress of the front leg zone is from 80% to 200% of the tensile stress of the back leg zone, the tensile stress of the front waist zone is from 80% to 120% of the tensile stress of the back waist zone, and wherein each of the elastic bodies disposed on the front proximal tummy zone have a density of no less than 540dtex at an elongation of no less than 250%, and. wherein from 6 to 18 elastic bodies are disposed on the front proximal tummy zone.
An aqueous etching solution with a pH of 8 to 10 that contains an etching agent for aluminum or aluminum alloy, the agent comprising: 50 parts by mass of an aminocarboxylic acid as Component A; 5 to 300 parts by mass of at least one selected from a hydroxycarboxylic acid, a dicarboxylic acid, a polycarboxylic acid, and salts thereof as Component B; and 10 to 800 parts by mass of at least one selected from a hydroxide, a carbonate, and a bicarbonate of an alkali metal as Component C. 50 parts by mass of an aminocarboxylic acid as Component A; 5 to 300 parts by mass of at least one selected from a hydroxycarboxylic acid, a dicarboxylic acid, a polycarboxylic acid, and salts thereof as Component B; and 10 to 800 parts by mass of at least one selected from a hydroxide, a carbonate, and a bicarbonate of an alkali metal as Component C.